2-amino-N-[7-methoxy-2, 3-dihydroimidazo-[1,2-c] quinazolin-5-yl] pyrimidine-5-carboxamides

ABSTRACT

This invention relates to novel 2,3-dihydroimidazo[1,2-c]quinazoline compounds, pharmaceutical compositions containing such compounds and the use of those compounds or compositions for phosphotidylinositol-3-kinase (PI3K) inhibition and treating diseases associated with phosphotidylinositol-3-kinase (PI3K) activity, in particular treating hyper-proliferative and/or angiogenesis disorders, as a sole agent or in combination with other active ingredients.

CROSS REFERENCE TO RELATED APPLICATIONS

This application is a national stage application under 35 U.S.C. § 371 of International Application No. PCT/EP2017/054736, filed internationally on Mar. 1, 2017, which claims the priority benefit of European Application No. 16159156.5, filed Mar. 8, 2016.

FIELD OF THE INVENTION

This invention relates to novel 2,3-dihydroimidazo[1,2-c]quinazoline compounds, pharmaceutical compositions containing such compounds and the use of those compounds or compositions for phosphotidylinositol-3-kinase (PI3K) inhibition and treating diseases associated with phosphotidylinositol-3-kinase (PI3K) activity, in particular treating hyper-proliferative and/or angiogenesis disorders, as a sole agent or in combination with other active ingredients.

BACKGROUND OF THE INVENTION

In the last decade the concept of developing anti-cancer medications which target abnormally active protein kinases has led to a number of successes. In addition to the actions of protein kinases, lipid kinases also play an important role in generating critical regulatory second messengers. The PI3K family of lipid kinases generates 3′-phosphoinositides that bind to and activate a variety of cellular targets, initiating a wide range of signal transduction cascades (Vanhaesebroeck et al., 2001; Toker, 2002; Pendaries et al., 2003; Downes et al., 2005). These cascades ultimately induce changes in multiple cellular processes, including cell proliferation, cell survival, differentiation, vesicle trafficking, migration, and chemotaxis.

PI3Ks can be divided into three distinct classes based upon differences in both structure, and substrate preference. While members of the Class II family of PI3Ks have been implicated in the regulation of tumor growth (Brown and Shepard, 2001; Traer et al., 2006), the bulk of research has focused on the Class I enzymes and their role in cancer (Vivanco And Sawyers, 2002; Workman, 2004, Chen et al., 2005; Hennessey et al., 2005; Stauffer et al., 2005; Stephens et al., 2005; Cully et al., 2006).

Class I PI3Ks have traditionally been divided into two distinct sub-classes based upon differences in protein subunit composition. The Class I_(A) PI3Ks are comprised of a catalytic p110 catalytic subunit (p110α, β or δ) heterodimerized with a member of the p85 regulatory subunit family. In contrast, the Class I_(B) PI3K catalytic subunit (p110γ) heterodimerizes with a distinct p101 regulatory subunit (reviewed by Vanhaesebroeck and Waterfield, 1999; Funaki et al., 2000; Katso et al., 2001). The C-terminal region of these proteins contains a catalytic domain that possesses distant homology to protein kinases. The PI3Kγ structure is similar to Class I_(A) p110s, but lacks the N-terminal p85 binding site (Domin and Waterfield, 1997). Though similar in overall structure, the homology between catalytic p110 subunits is low to moderate. The highest homology between the PI3K isoforms is in the kinase pocket of the kinase domain.

The Class I_(A) PI3K isoforms associate with activated receptor tyrosine kinases (RTKs) (including PDGFR, EGFR, VEGFR, IGF1-R, c-KIT, CSF-R and Met), or with tyrosine phosphorylated adapter proteins (such as Grb2, Cbl, IRS-1 or Gab1), via their p85 regulatory subunits resulting in stimulation of the lipid kinase activity. Activation of the lipid kinase activity of the p110β and p110γ isoforms has been shown to occur in response to binding to activated forms of the ras Oncogene (Kodaki et al, 1994). In fact, the oncogenic activity of these isoforms may require binding to ras (Kang et al., 2006). In contrast, the p110α and p110δ isoforms exhibit oncogenic activity independent of ras binding, through constitutive activation of Akt.

Class I PI3Ks catalyze the conversion of PI(4,5)P₂ [PIP₂] to PI(3,4,5)P₃ [PIP₃]. The production of PIP₃ by PI3K affects multiple signaling processes that regulate and coordinate the biological end points of cell proliferation, cell survival, differentiation and cell migration. PIP₃ is bound by Pleckstrin-Homology (PH) domain-containing proteins, including the phosphoinositide-dependent kinase, PDK1 and the Akt proto-oncogene product, localizing these proteins in regions of active signal transduction and also contributing directly to their activation (Klippel et al., 1997; Fleming et al., 2000; Itoh and Takenawa, 2002; Lemmon, 2003). This co-localization of PDK1 with Akt facilitates the phosphorylation and activation of Akt. Carboxy-terminal phosphorylation of Akt on Ser⁴⁷³ promotes phosphorylation of Thr³⁰⁸ in the Akt activation loop (Chan and Tsichlis, 2001; Hodgekinson et al., 2002; Scheid et al., 2002; Hresko et al., 2003). Once active, Akt phosphorylates and regulates multiple regulatory kinases of pathways that directly influence cell cycle progression and cell survival.

Many of the effects of Akt activation are mediated via its negative regulation of pathways which impact cell survival and which are commonly dysregulated in cancer. Akt promotes tumor cell survival by regulating components of the apoptotic and cell cycle machinery. Akt is one of several kinases that phosphorylate and inactivate pro-apoptotic BAD proteins (del Paso et al., 1997; Pastorino et al., 1999). Akt may also promote cell survival through blocking cytochrome C-dependent caspase activation by phosphorylating Caspase 9 on Ser¹⁹⁶ (Cardone et al., 1998).

Akt impacts gene transcription on several levels. The Akt-mediated phosphorylation of the MDM2 E3 ubiquitin ligase on Ser¹⁶⁶ and Ser¹⁸⁶ facilitates the nuclear import of MDM2 and the formation and activation of the ubiquitin ligase complex. Nuclear MDM2 targets the p53 tumor suppressor for degradation, a process that can be blocked by LY294002 (Yap et al., 2000; Ogarawa et al., 2002). Downregulation of p53 by MDM2 negatively impacts the transcription of p53-regulated pro-apoptotic genes (e.g. Bax, Fas, PUMA and DR5), the cell cycle inhibitor, p21^(Cip1), and the PTEN tumor suppressor (Momand et al., 2000; Hupp et al., 2000; Mayo et al., 2002; Su et al., 2003). Similarly, the Akt-mediated phosphorylation of the Forkhead transcription factors FKHR, FKHRL and AFX (Kops et al., 1999; Tang et al., 1999), facilitates their binding to 14-3-3 proteins and export from the cell nucleus to the cytosol (Brunet et al., 1999). This functional inactivation of Forkhead activity also impacts pro-apoptotic and pro-angiogenic gene transcription including the transcription of Fas ligand (Ciechomska et al., 2003) Bim, a pro-apoptotic Bcl-2 family member (Dijkers et al., 2000), and the Angiopoietin-1 (Ang-1) antagonist, Ang-2 (Daly et al., 2004). Forkhead transcription factors regulate the expression of the cyclin-dependent kinase (Cdk) inhibitor p27^(Kip1). Indeed, PI3K inhibitors have been demonstrated to induce p27^(Kip1) expression resulting in Cdk1 inhibition, cell cycle arrest and apoptosis (Dijkers et al., 2000). Akt is also reported to phosphorylate p21^(Cip1) on Thr¹⁴⁵ and p27^(Kip1) on Thr¹⁵⁷ facilitating their association with 14-3-3 proteins, resulting in nuclear export and cytoplasmic retention, preventing their inhibition of nuclear Cdks (Zhou et al., 2001; Motti et al., 2004; Sekimoto et al., 2004). In addition to these effects, Akt phosphorylates IKK (Romashkova and Makarov, 1999), leading to the phosphorylation and degradation of IκB and subsequent nuclear translocation of NFκB, resulting in the expression of survival genes such as IAP and Bcl-X_(L).

The PI3K/Akt pathway is also linked to the suppression of apoptosis through the JNK and p38^(MAPK) MAP Kinases that are associated with the induction of apoptosis. Akt is postulated to suppress JNK and p38^(MAPK) signaling through the phosphorylation and inhibition of two JNK/p38 regulatory kinases, Apoptosis Signal-regulating Kinase 1 (ASK1) (Kim et al., 2001: Liao and Hung, 2003; Yuan et al., 2003), and Mixed Lineage Kinase 3 (MLK3) (Lopez-llasaca et al., 1997; Barthwal et al., 2003; Figueroa et al., 2003;). The induction of p38^(MAPK) activity is observed in tumors treated with cytotoxic agents and is required for those agents to induce cell death (reviewed by Olson and Hallahan, 2004). Thus, inhibitors of the PI3K pathway may promote the activities of co-administered cytotoxic drugs.

An additional role for PI3K/Akt signaling involves the regulation of cell cycle progression through modulation of Glycogen Synthase Kinase 3 (GSK3) activity. GSK3 activity is elevated in quiescent cells, where it phosphorylates cyclin D₁ on Ser²⁸⁶, targeting the protein for ubiquitination and degradation (Diehl et al., 1998) and blocking entry into S-phase. Akt inhibits GSK3 activity through phosphorylation on Ser⁹ (Cross et al., 1995). This results in the elevation of Cyclin D₁ levels which promotes cell cycle progression. Inhibition of GSK3 activity also impacts cell proliferation through activation of the wnt/beta-catenin signaling pathway (Abbosh and Nephew, 2005; Naito et al., 2005; Wilker et al., 2005; Kim et al., 2006; Segrelles et al., 2006). Akt mediated phosphorylation of GSK3 results in stabilization and nuclear localization of the beta-catenin protein, which in turn leads to increased expression of c-myc and cyclin D1, targets of the beta-catenin/Tcf pathway.

Although PI3K signaling is utilized by many of the signal transduction networks associated with both oncogenes and tumor suppressors, PI3K and its activity have been linked directly to cancer. Overexpression of both the p110α and p110β isoforms has been observed in bladder and colon tumors and cell lines, and overexpression generally correlates with increased PI3K activity (Benistant et al., 2000). Overexpression of p110α has also been reported in ovarian and cervical tumors and tumor cell lines, as well as in squamous cell lung carcinomas. The overexpression of p110α in cervical and ovarian tumor lines is associated with increased PI3K activity (Shayesteh et al., 1999; Ma et al., 2000). Elevated PI3K activity has been observed in colorectal carcinomas (Phillips et al., 1998) and increased expression has been observed in breast carcinomas (Gershtein et al., 1999).

Over the last few years, somatic mutations in the gene encoding p110α (PIK3CA) have been identified in numerous cancers. The data collected to date suggests that PIK3CA is mutated in approximately 32% of colorectal cancers (Samuels et al., 2004; Ikenoue et al., 2005), 18-40% of breast cancers (Bachman et al., 2004; Campbell et al., 2004; Levine et al., 2005; Saal et al., 2005; Wu et al., 2005), 27% of glioblastomas (Samuels et al., 2004; Hartmann et al., 2005, Gallia et al., 2006), 25% of gastric cancers (Byun et al., 2003; Samuels et al., 2004; Li et al., 2005), 36% of hepatocellular carcinomas (Lee et al., 2005), 4-12% of ovarian cancers (Levine et al., 2005; Wang et al., 2005), 4% of lung cancers (Samuels et al., 2004; Whyte and Holbeck, 2006), and up to 40% of endometrial cancers (Oda et al., 2005). PIK3CA mutations have been reported in oligodendroma, astrocytoma, medulloblastoma, and thyroid tumors as well (Broderick et al., 2004; Garcia-Rostan et al., 2005). Based upon the observed high frequency of mutation, PIK3CA is one of the two most frequently mutated genes associated with cancer, the other being K-ras. More than 80% of the PIK3CA mutations cluster within two regions of the protein, the helical (E545K) and catalytic (H1047R) domains. Biochemical analysis and protein expression studies have demonstrated that both mutations lead to increased constitutive p110α catalytic activity and are in fact, oncogenic (Bader et al., 2006; Kang et al., 2005; Samuels et al., 2005; Samuels and Ericson, 2006). Recently, it has been reported that PIK3CA knockout mouse embryo fibroblasts are deficient in signaling downstream from various growth factor receptors (IGF-1, Insulin, PDGF, EGF), and are resistant to transformation by a variety of oncogenic RTKs (IGFR, wild-type EGFR and somatic activating mutants of EGFR, Her2/Neu)(Zhao et al., 2006).

Functional studies of PI3K in vivo have demonstrated that siRNA-mediated downregulation of p110β inhibits both Akt phosphorylation and HeLa cell tumor growth in nude mice (Czauderna et al., 2003). In similar experiments, siRNA-mediated downregulation of p110β was also shown to inhibit the growth of malignant glioma cells in vitro and in vivo (Pu et al., 2006). Inhibition of PI3K function by dominant-negative p85 regulatory subunits can block mitogenesis and cell transformation (Huang et al., 1996; Rahimi et al., 1996). Several somatic mutations in the genes encoding the p85a and p85β regulatory subunits of PI3K that result in elevated lipid kinase activity have been identified in a number of cancer cells as well (Janssen et al., 1998; Jimenez et al., 1998; Philp et al., 2001; Jucker et al., 2002; Shekar et al., 2005). Neutralizing PI3K antibodies also block mitogenesis and can induce apoptosis in vitro (Roche et al., 1994: Roche et al., 1998; Bénistant et al., 2000). In vivo proof-of-principle studies using the PI3K inhibitors LY294002 and wortmannin, demonstrate that inhibition of PI3K signaling slows tumor growth in vivo (Powis et al., 1994; Shultz et al., 1995; Semba et al., 2002; Ihle et al., 2004).

Overexpression of Class I PI3K activity, or stimulation of their lipid kinase activities, is associated with resistance to both targeted (such as imatinib and tratsuzumab) and cytotoxic chemotherapeutic approaches, as well as radiation therapy (West et al., 2002; Gupta et al., 2003; Osaki et al., 2004; Nagata et al., 2004; Gottschalk et al., 2005; Kim et al., 2005). Activation of PI3K has also been shown to lead to expression of multidrug resistant protein-1 (MRP-1) in prostate cancer cells and the subsequent induction of resistance to chemotherapy (Lee et al., 2004).

The importance of PI3K signaling in tumorigenesis is further underscored by the findings that the PTEN tumor suppressor, a PI(3)P phosphatase, is among the most commonly inactivated genes in human cancers (Li et al., 1997, Steck et al., 1997; Ali et al., 1999; Ishii et al., 1999). PTEN dephosphorylates PI(3,4,5)P₃ to PI(4,5)P₂ thereby antagonizing PI3K-dependent signaling. Cells containing functionally inactive PTEN have elevated levels of PIP₃, high levels of activity of PI3K signaling (Haas-Kogan et al., 1998; Myers et al., 1998; Taylor et al., 2000), increased proliferative potential, and decreased sensitivity to pro-apoptotic stimuli (Stambolic et al., 1998). Reconstitution of a functional PTEN suppresses PI3K signaling (Taylor et al., 2000), inhibits cell growth and re-sensitizes cells to pro-apoptotic stimuli (Myers et al., 1998; Zhao et al., 2004). Similarly, restoration of PTEN function in tumors lacking functional PTEN inhibits tumor growth in vivo (Stahl et al., 2003; Su et al., 2003; Tanaka and Grossman, 2003) and sensitizes cells to cytotoxic agents (Tanaka and Grossman, 2003).

The class I family of PI3Ks clearly plays an important role in the regulation of multiple signal transduction pathways that promote cell survival and cell proliferation, and activation of their lipid kinase activity contributes significantly to the development of human malignancies. Furthermore, inhibition of PI3K may potentially circumvent the cellular mechanisms that underlie resistance to chemotherapeutic agents. A potent inhibitor of Class I PI3K activities would therefore have the potential not only to inhibit tumor growth but to also sensitize tumor cells to pro-apoptotic stimuli in vivo.

Signal transduction pathways originating from chemoattractant receptors are considered to be important targets in controlling leukocyte motility in inflammatory diseases. Leukocyte trafficking is controlled by chemoattractant factors that activate heterotrimeric GPCRs and thereby trigger a variety of downstream intracellular events. Signal transduction along one of these pathways that results in mobilization of free Ca²⁺, cytoskeletal reorganization, and directional movement depends on lipid-derived second messengers produced by PI3K activity (Wymann et al., 2000; Stein and Waterfield, 2000).

PI3Kγ modulates baseline cAMP levels and controls contractility in cells. Recent research indicates that alterations in baseline cAMP levels contributes to the increased contractility in mutant mice. This research, therefore, shows that PI3Kγ inhibitors would afford potential treatments for congestive heart failure, ischemia, pulmonary hypertension, renal failure, cardiac hypertrophy, atherosclerosis, thromboembolism, and diabetes.

PI3K inhibitors would be expected to block signal transduction from GPCRs and block the activation of various immune cells, leading to a broad anti-inflammatory profile with potential for the treatment of inflammatory and immunoregulatory diseases, including asthma, atopic dermatitis, rhinitis, allergic diseases, chronic obstructive pulmonary disease (COPD), septic shock, joint diseases, autoimmune pathologies such as rheumatoid arthritis and Graves' disease, diabetes, cancer, myocardial contractility disorders, thromboembolism, and atherosclerosis.

2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide (10), (which is hereinafter referred to as “copanlisib”), is a proprietary cancer agent with a novel mechanism of action, inhibiting Class I phosphatidylinositol-3-kinases (PI3Ks). This class of kinases is an attractive target since PI3Ks play a central role in the transduction of cellular signals from surface receptors for survival and proliferation. Copanlisib exhibits a broad spectrum of activity against tumours of multiple histologic types, both in vitro and in vivo.

Copanlisib may be synthesised according to the methods given in international patent application PCT/EP2003/010377, published as WO 04/029055 A1 on Apr. 8, 2004, (which is incorporated herein by reference in its entirety), on pp. 26 et seq.

Copanlisib is published in international patent application PCT/US2007/024985, published as WO 2008/070150 A1 on Jun. 12, 2008, (which is incorporated herein by reference in its entirety), as the compound of Example 13:2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide.

Copanlisib may be synthesized according to the methods given in WO 2008/070150, pp. 9 et seq., and on pp. 42 et seq. Biological test data for said compound of formula (I) is given in WO 2008/070150 on pp. 101 to 107.

2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimid-azo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide dihydrochloride (11), (which is hereinafter referred to as “copanlisib dihydrochloride”) is published in international patent application PCT/EP2012/055600, published as WO 2012/136553 on Oct. 11, 2012, (which is incorporated herein by reference in its entirety), as the compound of Examples 1 and 2:2-amino-N-[7-methoxy-8-(3-morpholin-4-ylpropoxy)-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide dihydrochloride: it may be synthesized according to the methods given in said Examples 1 and 2.

However, the state of the art described above does not describe the specific 2-amino-N-[7-methoxy-2,3-dihydroimidazo-[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamides as described herein, or a stereoisomer, a tautomer, an N-oxide, a hydrate, a solvate, or a salt thereof, or a mixture of same, as described and defined herein, and as hereinafter referred to as “compounds of the present invention”, or their pharmacological activity.

It has now been found, and this constitutes the basis of the present invention, that said compounds of the present invention have surprising and advantageous properties, in particular they exhibit anti-proliferative activity and are thus useful to prevent or treat the disorders associated with hyper-proliferation.

DESCRIPTION OF THE INVENTION

According to a first aspect, the present invention relates to compounds of general formula (I):

in which:

R¹ represents a hydrogen atom or a —C(═O)H group; and

R^(1′) represents a —(CH₂)₂OH group;

or:

R¹ and R^(1′), together with the N-atom to which they are attached, form a morpholinyl group which is substituted with 1 or 2 substituents independently selected from —OH and ═O;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ represents a hydrogen atom; and

R^(1′) represents a —(CH₂)₂OH group;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ represents a —C(═O)H group; and

R^(1′) represents a —(CH₂)₂OH group;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ and R^(1′), together with the N-atom to which they are attached, form a morpholinyl group which is substituted with 1 or 2 substituents independently selected from —OH and ═O;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ and R^(1′), together with the N-atom to which they are attached, form a morpholinyl group which is substituted with a —OH and a ═O substituent;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ and R^(1′), together with the N-atom to which they are attached, form a morpholinyl group which is substituted with a —OH substituent;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ and R^(1′), together with the N-atom to which they are attached, form a morpholinyl group which is substituted with a ═O substituent;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In an embodiment of the first aspect, the present invention relates to compounds of general formula (I), in which:

R¹ and R^(1′), together with the N-atom to which they are attached, form a morpholinyl group which is substituted with a ═O substituent, said ═O group being bound to a carbon atom adjacent to said N-atom;

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In another embodiment of the first aspect, the present invention relates to compounds of formula (I), which are selected from:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In another embodiment of the first aspect, the present invention relates to a compound of formula (I), which is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In another embodiment of the first aspect, the present invention relates to a compound of formula (I), which is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In another embodiment of the first aspect, the present invention relates to a compound of formula (I), which is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In another embodiment of the first aspect, the present invention relates to a compound of formula (I), which is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

In another embodiment of the first aspect, the present invention relates to a compound of formula (I), which is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.

Where there is a discrepancy between the chemical name and the chemical structure depicted, the chemical structure depicted takes precedence over the chemical name given.

Without being bound by theory or mechanism, the compounds of the present invention display surprising activity for the inhibition of phosphatidylinositol-3-kinase and chemical and structural stability over those compounds of the prior art, especially since it was believed that activity is based on the chemical structure of the compounds, in particular the basicity of the compounds as a result of R¹ being amino optionally substituted with R⁵ and R^(5′).

Definitions

Where the plural form of the word compounds, salts, polymorphs, hydrates, solvates and the like, is used herein, this is taken to mean also a single compound, salt, polymorph, isomer, hydrate, solvate or the like.

The compounds of this invention may contain one or more asymmetric centers, depending upon the location and nature of the various substituents desired. Asymmetric carbon atoms may be present in the (R) or (S) configuration, resulting in racemic mixtures in the case of a single asymmetric center, and diastereomeric mixtures in the case of multiple asymmetric centers. In certain instances, asymmetry may also be present due to restricted rotation about a given bond, for example, the central bond adjoining two substituted aromatic rings of the specified compounds. Substituents on a ring may also be present in either cis or trans form. It is intended that all such configurations (including enantiomers and diastereomers), are included within the scope of the present invention. Preferred compounds are those, which produce the more desirable biological activity. Separated, pure or partially purified isomers and stereoisomers or racemic or diastereomeric mixtures of the compounds of this invention are also included within the scope of the present invention. The purification and the separation of such materials can be accomplished by standard techniques known in the art.

The present invention also relates to useful forms of the compounds as disclosed herein, such as pharmaceutically acceptable salts, co-precipitates, metabolites, hydrates, solvates and prodrugs of all the compounds of examples. Further, it is possible for the compounds of the present invention to exist in free form, e.g. as a free base, or as a free acid, or as a zwitterion, or to exist in the form of a salt. Said salt may be any salt, either an organic or inorganic addition salt, particularly any pharmaceutically acceptable organic or inorganic addition salt, which is customarily used in pharmacy, or which is used, for example, for isolating or purifying the compounds of the present invention.

The term “pharmaceutically acceptable salt” refers to an inorganic or organic acid addition salt of a compound of the present invention. For example, see S. M. Berge, et al. “Pharmaceutical Salts,” J. Pharm. Sci. 1977, 66, 1-19.

A suitable pharmaceutically acceptable salt of the compounds of the present invention may be, for example, an acid-addition salt of a compound of the present invention bearing a nitrogen atom, in a chain or in a ring, for example, which is sufficiently basic, such as an acid-addition salt with an inorganic acid, or “mineral acid”, such as hydrochloric, hydrobromic, hydroiodic, sulfuric, sulfamic, bisulfuric, phosphoric, or nitric acid, for example, or with an organic acid, such as formic, acetic, acetoacetic, pyruvic, trifluoroacetic, propionic, butyric, hexanoic, heptanoic, undecanoic, lauric, benzoic, salicylic, 2-(4-hydroxybenzoyl)-benzoic, camphoric, cinnamic, cyclopentanepropionic, digluconic, 3-hydroxy-2-naphthoic, nicotinic, pamoic, pectinic, 3-phenylpropionic, pivalic, 2-hydroxyethanesulfonic, itaconic, trifluoromethanesulfonic, dodecylsulfuric, ethanesulfonic, benzenesulfonic, para-toluenesulfonic, methanesulfonic, 2-naphthalenesulfonic, naphthalinedisulfonic, camphorsulfonic acid, citric, tartaric, stearic, lactic, oxalic, malonic, succinic, malic, adipic, alginic, maleic, fumaric, D-gluconic, mandelic, ascorbic, glucoheptanoic, glycerophosphoric, aspartic, sulfosalicylic, or thiocyanic acid, for example.

Further, another suitably pharmaceutically acceptable salt of a compound of the present invention which is sufficiently acidic, is an alkali metal salt, for example a sodium or potassium salt, an alkaline earth metal salt, for example a calcium, magnesium or strontium salt, or an aluminium or a zinc salt, or an ammonium salt derived from ammonia or from an organic primary, secondary or tertiary amine having 1 to 20 carbon atoms, such as ethylamine, diethylamine, triethylamine, ethyldiisopropylamine, monoethanolamine, diethanolamine, triethanolamine, dicyclohexylamine, dimethylaminoethanol, diethylaminoethanol, tris(hydroxymethyl)aminomethane, procaine, dibenzylamine, N-methylmorpholine, arginine, lysine, 1,2-ethylenediamine, N-methylpiperidine, N-methyl-glucamine, N,N-dimethyl-glucamine, N-ethyl-glucamine, 1,6-hexanediamine, glucosamine, sarcosine, serinol, 2-amino-1,3-propanediol, 3-amino-1,2-propanediol, 4-amino-1,2,3-butanetriol, or a salt with a quarternary ammonium ion having 1 to 20 carbon atoms, such as tetramethylammonium, tetraethylammonium, tetra(n-propyl)ammonium, tetra(n-butyl)ammonium, N-benzyl-N,N,N-trimethylammonium, choline or benzalkonium.

Those skilled in the art will further recognise that it is possible for acid addition salts of the claimed compounds to be prepared by reaction of the compounds with the appropriate inorganic or organic acid via any of a number of known methods. Alternatively, alkali and alkaline earth metal salts of acidic compounds of the present invention are prepared by reacting the compounds of the present invention with the appropriate base via a variety of known methods.

The present invention includes all possible salts of the compounds of the present invention as single salts, or as any mixture of said salts, in any ratio.

In the present text, in particular in the Experimental Section, for the synthesis of intermediates and of examples of the present invention, when a compound is mentioned as a salt form with the corresponding base or acid, the exact stoichiometric composition of said salt form, as obtained by the respective preparation and/or purification process, is, in most cases, unknown.

Unless specified otherwise, suffixes to chemical names or structural formulae relating to salts, such as “hydrochloride”, “trifluoroacetate”, “sodium salt”, or “x HCl”, “x CF₃COOH”, “x Na⁺”, for example, mean a salt form, the stoichiometry of which salt form not being specified.

This applies analogously to cases in which synthesis intermediates or example compounds or salts thereof have been obtained, by the preparation and/or purification processes described, as solvates, such as hydrates, with (if defined) unknown stoichiometric composition.

A solvate for the purpose of this invention is a complex of a solvent and a compound of the invention in the solid state. Exemplary solvates would include, but are not limited to, complexes of a compound of the invention with ethanol or methanol. Hydrates are a specific form of solvate wherein the solvent is water.

Pharmaceutical Compositions of the Compounds of the Invention

This invention also relates to pharmaceutical compositions containing one or more compounds of the present invention.

It is possible for the compounds according to the invention to have systemic and/or local activity. For this purpose, they can be administered in a suitable manner, such as, for example, via the oral, parenteral, pulmonary, nasal, sublingual, lingual, buccal, rectal, vaginal, dermal, transdermal, conjunctival, otic route or as an implant or stent.

For these administration routes, it is possible for the compounds according to the invention to be administered in suitable administration forms.

For oral administration, it is possible to formulate the compounds according to the invention to dosage forms known in the art that deliver the compounds of the invention rapidly and/or in a modified manner, such as, for example, tablets (uncoated or coated tablets, for example with enteric or controlled release coatings that dissolve with a delay or are insoluble), orally-disintegrating tablets, films/wafers, films/lyophylisates, capsules (for example hard or soft gelatine capsules), sugar-coated tablets, granules, pellets, powders, emulsions, suspensions, aerosols or solutions. It is possible to incorporate the compounds according to the invention in crystalline and/or amorphised and/or dissolved form into said dosage forms.

Parenteral administration can be effected with avoidance of an absorption step (for example intravenous, intraarterial, intracardial, intraspinal or intralumbal) or with inclusion of absorption (for example intramuscular, subcutaneous, intracutaneous, percutaneous or intraperitoneal). Administration forms which are suitable for parenteral administration are, inter alia, preparations for injection and infusion in the form of solutions, suspensions, emulsions, lyophylisates or sterile powders.

Examples which are suitable for other administration routes are pharmaceutical forms for inhalation [inter alia powder inhalers, nebulizers], nasal drops, nasal solutions, nasal sprays; tablets/films/wafers/capsules for lingual, sublingual or buccal administration; suppositories; eye drops, eye ointments, eye baths, ocular inserts, ear drops, ear sprays, ear powders, ear-rinses, ear tampons; vaginal capsules, aqueous suspensions (lotions, mixturae agitandae), lipophilic suspensions, emulsions, ointments, creams, transdermal therapeutic systems (such as, for example, patches), milk, pastes, foams, dusting powders, implants or stents.

The compounds according to the invention can be incorporated into the stated administration forms. This can be effected in a manner known per se by mixing with pharmaceutically suitable excipients. Pharmaceutically suitable excipients include, inter alia,

-   -   fillers and carriers (for example cellulose, microcrystalline         cellulose (such as, for example, Avicel®), lactose, mannitol,         starch, calcium phosphate (such as, for example, Di-Cafos®)),     -   ointment bases (for example petroleum jelly, paraffins,         triglycerides, waxes, wool wax, wool wax alcohols, lanolin,         hydrophilic ointment, polyethylene glycols),     -   bases for suppositories (for example polyethylene glycols, cacao         butter, hard fat),     -   solvents (for example water, ethanol, isopropanol, glycerol,         propylene glycol, medium chain-length triglycerides fatty oils,         liquid polyethylene glycols, paraffins),     -   surfactants, emulsifiers, dispersants or wetters (for example         sodium dodecyl sulfate), lecithin, phospholipids, fatty alcohols         (such as, for example, Lanette®), sorbitan fatty acid esters         (such as, for example, Span®), polyoxyethylene sorbitan fatty         acid esters (such as, for example, Tween®), polyoxyethylene         fatty acid glycerides (such as, for example, Cremophor®),         polyoxethylene fatty acid esters, polyoxyethylene fatty alcohol         ethers, glycerol fatty acid esters, poloxamers (such as, for         example, Pluronic®),     -   buffers, acids and bases (for example phosphates, carbonates,         citric acid, acetic acid, hydrochloric acid, sodium hydroxide         solution, ammonium carbonate, trometamol, triethanolamine),     -   isotonicity agents (for example glucose, sodium chloride),     -   adsorbents (for example highly-disperse silicas),     -   viscosity-increasing agents, gel formers, thickeners and/or         binders (for example polyvinylpyrrolidone, methylcellulose,         hydroxypropylmethylcellulose, hydroxypropylcellulose,         carboxymethylcellulose-sodium, starch, carbomers, polyacrylic         acids (such as, for example, Carbopol®); alginates, gelatine),     -   disintegrants (for example modified starch,         carboxymethylcellulose-sodium, sodium starch glycolate (such as,         for example, Explotab®), cross-linked polyvinylpyrrolidone,         croscarmellose-sodium (such as, for example, AcDiSol®)),     -   flow regulators, lubricants, glidants and mould release agents         (for example magnesium stearate, stearic acid, talc,         highly-disperse silicas (such as, for example, Aerosil®)),     -   coating materials (for example sugar, shellac) and film formers         for films or diffusion membranes which dissolve rapidly or in a         modified manner (for example polyvinylpyrrolidones (such as, for         example, Kollidon®), polyvinyl alcohol,         hydroxypropylmethylcellulose, hydroxypropylcellulose,         ethylcellulose, hydroxypropylmethylcellulose phthalate,         cellulose acetate, cellulose acetate phthalate, polyacrylates,         polymethacrylates such as, for example, Eudragit®)),     -   capsule materials (for example gelatine,         hydroxypropylmethylcellulose),     -   synthetic polymers (for example polylactides, polyglycolides,         polyacrylates, polymethacrylates (such as, for example,         Eudragit®), polyvinylpyrrolidones (such as, for example,         Kollidon®), polyvinyl alcohols, polyvinyl acetates, polyethylene         oxides, polyethylene glycols and their copolymers and         blockcopolymers),     -   plasticizers (for example polyethylene glycols, propylene         glycol, glycerol, triacetine, triacetyl citrate, dibutyl         phthalate),     -   penetration enhancers,     -   stabilisers (for example antioxidants such as, for example,         ascorbic acid, ascorbyl palmitate, sodium ascorbate,         butylhydroxyanisole, butylhydroxytoluene, propyl gallate),     -   preservatives (for example parabens, sorbic acid, thiomersal,         benzalkonium chloride, chlorhexidine acetate, sodium benzoate),     -   colourants (for example inorganic pigments such as, for example,         iron oxides, titanium dioxide),     -   flavourings, sweeteners, flavour- and/or odour-masking agents.

The present invention furthermore relates to a pharmaceutical composition which comprise at least one compound according to the invention, conventionally together with one or more pharmaceutically suitable excipient(s), and to their use according to the present invention.

Method of Treating Hyper-Proliferative Disorders

The present invention relates to a method for using the compounds of the present invention and compositions thereof, to treat mammalian hyper-proliferative disorders. Compounds can be utilized to inhibit, block, reduce, decrease, etc., cell proliferation and/or cell division, and/or produce apoptosis. This method comprises administering to a mammal in need thereof, including a human, an amount of a compound of this invention, or a pharmaceutically acceptable salt, isomer, polymorph, metabolite, hydrate, solvate or ester thereof; etc. which is effective to treat the disorder. Hyper-proliferative disorders include but are not limited, e.g., psoriasis, keloids, and other hyperplasias affecting the skin, benign prostate hyperplasia (BPH), solid tumors, such as cancers of the breast, respiratory tract, brain, reproductive organs, digestive tract, urinary tract, eye, liver, skin, head and neck, thyroid, parathyroid and their distant metastases. Those disorders also include lymphomas, sarcomas, and leukemias.

Examples of breast cancer include, but are not limited to invasive ductal carcinoma, invasive lobular carcinoma, ductal carcinoma in situ, and lobular carcinoma in situ.

Examples of cancers of the respiratory tract include, but are not limited to small-cell and non-small-cell lung carcinoma, as well as bronchial adenoma and pleuropulmonary blastoma.

Examples of brain cancers include, but are not limited to brain stem and hypophtalmic glioma, cerebellar and cerebral astrocytoma, medulloblastoma, ependymoma, as well as neuroectodermal and pineal tumor.

Tumors of the male reproductive organs include, but are not limited to prostate and testicular cancer. Tumors of the female reproductive organs include, but are not limited to endometrial, cervical, ovarian, vaginal, and vulvar cancer, as well as sarcoma of the uterus.

Tumors of the digestive tract include, but are not limited to anal, colon, colorectal, esophageal, gallbladder, gastric, pancreatic, rectal, small-intestine, and salivary gland cancers.

Tumors of the urinary tract include, but are not limited to bladder, penile, kidney, renal pelvis, ureter, urethral and human papillary renal cancers.

Eye cancers include, but are not limited to intraocular melanoma and retinoblastoma.

Examples of liver cancers include, but are not limited to hepatocellular carcinoma (liver cell carcinomas with or without fibrolamellar variant), cholangiocarcinoma (intrahepatic bile duct carcinoma), and mixed hepatocellular cholangiocarcinoma.

Skin cancers include, but are not limited to squamous cell carcinoma, Kaposi's sarcoma, malignant melanoma, Merkel cell skin cancer, and non-melanoma skin cancer.

Head-and-neck cancers include, but are not limited to laryngeal, hypopharyngeal, nasopharyngeal, oropharyngeal cancer, lip and oral cavity cancer and squamous cell. Lymphomas include, but are not limited to AIDS-related lymphoma, non-Hodgkin's lymphoma, cutaneous T-cell lymphoma, Burkitt lymphoma, Hodgkin's disease, and lymphoma of the central nervous system.

Sarcomas include, but are not limited to sarcoma of the soft tissue, osteosarcoma, malignant fibrous histiocytoma, lymphosarcoma, and rhabdomyosarcoma.

Leukemias include, but are not limited to acute myeloid leukemia, acute lymphoblastic leukemia, chronic lymphocytic leukemia, chronic myelogenous leukemia, and hairy cell leukemia.

These disorders have been well characterized in humans, but also exist with a similar etiology in other mammals, and can be treated by administering pharmaceutical compositions of the present invention.

The term “treating” or “treatment” as stated throughout this document is used conventionally, e.g., the management or care of a subject for the purpose of combating, alleviating, reducing, relieving, improving the condition of, etc., of a disease or disorder, such as a carcinoma.

Methods of Treating Kinase Disorders

The present invention also provides methods for the treatment of disorders associated with aberrant kinase activity (such as tyrosine kinase activity), including, phosphotidylinositol-3-kinase.

Effective amounts of compounds of the present invention can be used to treat disorders, including angiogenic disorders, such as cancer; inflammatory disorders (including but not limited to Chronic obstructive pulmonary disorder (COPD)), autoimmune disorders, cardiovascular disorders (including but not limited to thrombosis, pulmonary hypertension, cardiac hypertophy, atherosclerosis or heart failure), neurodegenerative disorders, metabolic disorders, nociceptive disorders, ophthalmic disorders, pulmonary disorders, or renal disorders. Nonetheless, such cancers and other diseases can be treated with compounds of the present invention, regardless of the mechanism of action and/or the relationship between the kinase and the disorder.

The phrase “aberrant kinase activity” or “aberrant tyrosine kinase activity,” includes any abnormal expression or activity of the gene encoding the kinase or of the polypeptide it encodes. Examples of such aberrant activity, include, but are not limited to, overexpression of the gene or polypeptide; gene amplification; mutations which produce constitutively-active or hyperactive kinase activity; gene mutations, deletions, substitutions, additions, etc.

The present invention also provides for methods of inhibiting a kinase activity, especially of phosphotidylinositol-3-kinase, comprising administering an effective amount of a compound of the present invention, including salts, polymorphs, metabolites, hyrates, solvates, prodrugs (e.g.: esters) thereof, and diastereoisomeric forms thereof. Kinase activity can be inhibited in cells (e.g., in vitro), or in the cells of a mammalian subject, especially a human patient in need of treatment.

Methods of Treating Angiogenic Disorders

The present invention also provides methods of treating disorders and diseases associated with excessive and/or abnormal angiogenesis.

Inappropriate and ectopic expression of angiogenesis can be deleterious to an organism. A number of pathological conditions are associated with the growth of extraneous blood vessels. These include, e.g., diabetic retinopathy, ischemic retinal-vein occlusion, and retinopathy of prematurity (Aiello et al. New Engl. J. Med. 1994, 331, 1480; Peer et al. Lab. Invest. 1995, 72, 638), age-related macular degeneration (AMD; see, Lopez et al. Invest. Opththalmol. Vis. Sci. 1996, 37, 855), neovascular glaucoma, psoriasis, retrolental fibroplasias, angiofibroma, inflammation, rheumatoid arthritis (RA), restenosis, in-stent restenosis, vascular graft restenosis, etc. In addition, the increased blood supply associated with cancerous and neoplastic tissue, encourages growth, leading to rapid tumor enlargement and metastasis. Moreover, the growth of new blood and lymph vessels in a tumor provides an escape route for renegade cells, encouraging metastasis and the consequence spread of the cancer. Thus, compounds of the present invention can be utilized to treat and/or prevent any of the aforementioned angiogenesis disorders, e.g., by inhibiting and/or reducing blood vessel formation; by inhibiting, blocking, reducing, decreasing, etc. endothelial cell proliferation or other types involved in angiogenesis, as well as causing cell death or apoptosis of such cell types.

Dose and Administration

Based upon standard laboratory techniques known to evaluate compounds useful for the treatment of hyper-proliferative disorders and angiogenic disorders, by standard toxicity tests and by standard pharmacological assays for the determination of treatment of the conditions identified above in mammals, and by comparison of these results with the results of known medicaments that are used to treat these conditions, the effective dosage of the compounds of this invention can readily be determined for treatment of each desired indication. The amount of the active ingredient to be administered in the treatment of one of these conditions can vary widely according to such considerations as the particular compound and dosage unit employed, the mode of administration, the period of treatment, the age and sex of the patient treated, and the nature and extent of the condition treated.

The total amount of the active ingredient to be administered will generally range from about 0.001 mg/kg to about 200 mg/kg body weight per day, and preferably from about 0.01 mg/kg to about 20 mg/kg body weight per day. Clinically useful dosing schedules will range from one to three times a day dosing to once every four weeks dosing. In addition, “drug holidays” in which a patient is not dosed with a drug for a certain period of time, may be beneficial to the overall balance between pharmacological effect and tolerability. A unit dosage may contain from about 0.5 mg to about 1500 mg of active ingredient, and can be administered one or more times per day or less than once a day. The average daily dosage for administration by injection, including intravenous, intramuscular, subcutaneous and parenteral injections, and use of infusion techniques will preferably be from 0.01 to 200 mg/kg of total body weight. The average daily rectal dosage regimen will preferably be from 0.01 to 200 mg/kg of total body weight. The average daily vaginal dosage regimen will preferably be from 0.01 to 200 mg/kg of total body weight. The average daily topical dosage regimen will preferably be from 0.1 to 200 mg administered between one to four times daily. The transdermal concentration will preferably be that required to maintain a daily dose of from 0.01 to 200 mg/kg. The average daily inhalation dosage regimen will preferably be from 0.01 to 100 mg/kg of total body weight.

Of course the specific initial and continuing dosage regimen for each patient will vary according to the nature and severity of the condition as determined by the attending diagnostician, the activity of the specific compound employed, the age and general condition of the patient, time of administration, route of administration, rate of excretion of the drug, drug combinations, and the like. The desired mode of treatment and number of doses of a compound of the present invention or a pharmaceutically acceptable salt or ester or composition thereof can be ascertained by those skilled in the art using conventional treatment tests.

Combination Therapies

The compounds of this invention can be administered as the sole pharmaceutical agent or in combination with one or more other pharmaceutical agents where the combination causes no unacceptable adverse effects. For example, the compounds of this invention can be combined with known anti-hyper-proliferative, antiinflammatory, analgesic, immunoregulatory, diuretic, antiarrhytmic, anti-hypercholsterolemia, anti-dyslipidemia, anti-diabetic or antiviral agents, and the like, as well as with admixtures and combinations thereof.

The additional pharmaceutical agent can be 131I-chTNT, abarelix, abiraterone, aclarubicin, ado-trastuzumab emtansine, afatinib, aflibercept, aldesleukin, alemtuzumab, Alendronic acid, alitretinoin, altretamine, amifostine, aminoglutethimide, Hexyl aminolevulinate, amrubicin, amsacrine, anastrozole, ancestim, anethole dithiolethione, angiotensin II, antithrombin III, aprepitant, arcitumomab, arglabin, arsenic trioxide, asparaginase, axitinib, azacitidine, basiliximab, belotecan, bendamustine, belinostat, bevacizumab, bexarotene, bicalutamide, bisantrene, bleomycin, bortezomib, buserelin, bosutinib, brentuximab vedotin, busulfan, cabazitaxel, cabozantinib, calcium folinate, calcium levofolinate, capecitabine, capromab, carboplatin, carfilzomib, carmofur, carmustine, catumaxomab, celecoxib, celmoleukin, ceritinib, cetuximab, chlorambucil, chlormadinone, chlormethine, cidofovir, cinacalcet, cisplatin, cladribine, clodronic acid, clofarabine, copanlisib, crisantaspase, cyclophosphamide, cyproterone, cytarabine, dacarbazine, dactinomycin, darbepoetin alfa, dabrafenib, dasatinib, daunorubicin, decitabine, degarelix, denileukin diftitox, denosumab, depreotide, deslorelin, dexrazoxane, dibrospidium chloride, dianhydrogalactitol, diclofenac, docetaxel, dolasetron, doxifluridine, doxorubicin, doxorubicin+estrone, dronabinol, eculizumab, edrecolomab, elliptinium acetate, eltrombopag, endostatin, enocitabine, enzalutamide, epirubicin, epitiostanol, epoetin alfa, epoetin beta, epoetin zeta, eptaplatin, eribulin, erlotinib, esomeprazole, estradiol, estramustine, etoposide, everolimus, exemestane, fadrozole, fentanyl, filgrastim, fluoxymesterone, floxuridine, fludarabine, fluorouracil, flutamide, folinic acid, formestane, fosaprepitant, fotemustine, fulvestrant, gadobutrol, gadoteridol, gadoteric acid meglumine, gadoversetamide, gadoxetic acid, gallium nitrate, ganirelix, gefitinib, gemcitabine, gemtuzumab, Glucarpidase, glutoxim, GM-CSF, goserelin, granisetron, granulocyte colony stimulating factor, histamine dihydrochloride, histrelin, hydroxycarbamide, 1-125 seeds, lansoprazole, ibandronic acid, ibritumomab tiuxetan, ibrutinib, idarubicin, ifosfamide, imatinib, imiquimod, improsulfan, indisetron, incadronic acid, ingenol mebutate, interferon alfa, interferon beta, interferon gamma, iobitridol, iobenguane (123I), iomeprol, ipilimumab, irinotecan, Itraconazole, ixabepilone, lanreotide, lapatinib, lasocholine, lenalidomide, lenograstim, lentinan, letrozole, leuprorelin, levamisole, levonorgestrel, levothyroxine sodium, lisuride, lobaplatin, lomustine, lonidamine, masoprocol, medroxyprogesterone, megestrol, melarsoprol, melphalan, mepitiostane, mercaptopurine, mesna, methadone, methotrexate, methoxsalen, methylaminolevulinate, methylprednisolone, methyltestosterone, metirosine, mifamurtide, miltefosine, miriplatin, mitobronitol, mitoguazone, mitolactol, mitomycin, mitotane, mitoxantrone, mogamulizumab, molgramostim, mopidamol, morphine hydrochloride, morphine sulfate, nabilone, nabiximols, nafarelin, naloxone+pentazocine, naltrexone, nartograstim, nedaplatin, nelarabine, neridronic acid, nivolumabpentetreotide, nilotinib, nilutamide, nimorazole, nimotuzumab, nimustine, nitracrine, nivolumab, obinutuzumab, octreotide, ofatumumab, omacetaxine mepesuccinate, omeprazole, ondansetron, oprelvekin, orgotein, orilotimod, oxaliplatin, oxycodone, oxymetholone, ozogamicine, p53 gene therapy, paclitaxel, palifermin, palladium-103 seed, palonosetron, pamidronic acid, panitumumab, pantoprazole, pazopanib, pegaspargase, PEG-epoetin beta (methoxy PEG-epoetin beta), pembrolizumab, pegfilgrastim, peginterferon alfa-2b, pemetrexed, pentazocine, pentostatin, peplomycin, Perflubutane, perfosfamide, Pertuzumab, picibanil, pilocarpine, pirarubicin, pixantrone, plerixafor, plicamycin, poliglusam, polyestradiol phosphate, polyvinylpyrrolidone+sodium hyaluronate, polysaccharide-K, pomalidomide, ponatinib, porfimer sodium, pralatrexate, prednimustine, prednisone, procarbazine, procodazole, propranolol, quinagolide, rabeprazole, racotumomab, radium-223 chloride, radotinib, raloxifene, raltitrexed, ramosetron, ramucirumab, ranimustine, rasburicase, razoxane, refametinib, regorafenib, risedronic acid, rhenium-186 etidronate, rituximab, romidepsin, romiplostim, romurtide, roniciclib, samarium (153Sm) lexidronam, sargramostim, satumomab, secretin, sipuleucel-T, sizofiran, sobuzoxane, sodium glycididazole, sorafenib, stanozolol, streptozocin, sunitinib, talaporfin, tamibarotene, tamoxifen, tapentadol, tasonermin, teceleukin, technetium (99mTc) nofetumomab merpentan, 99mTc-HYNIC-[Tyr3]-octreotide, tegafur, tegafur+gimeracil+oteracil, temoporfin, temozolomide, temsirolimus, teniposide, testosterone, tetrofosmin, thalidomide, thiotepa, thymalfasin, thyrotropin alfa, tioguanine, tocilizumab, topotecan, toremifene, tositumomab, trabectedin, tramadol, trastuzumab, trastuzumab emtansine, treosulfan, tretinoin, trifluridine+tipiracil, trilostane, triptorelin, trametinib, trofosfamide, thrombopoietin, tryptophan, ubenimex, valatinib, valrubicin, vandetanib, vapreotide, vemurafenib, vinblastine, vincristine, vindesine, vinflunine, vinorelbine, vismodegib, vorinostat, vorozole, yttrium-90 glass microspheres, zinostatin, zinostatin stimalamer, zoledronic acid, zorubicin.

Generally, the use of cytotoxic and/or cytostatic agents in combination with a compound or composition of the present invention will serve to:

(1) yield better efficacy in reducing the growth of a tumor or even eliminate the tumor as compared to administration of either agent alone,

(2) provide for the administration of lesser amounts of the administered chemotherapeutic agents,

(3) provide for a chemotherapeutic treatment that is well tolerated in the patient with fewer deleterious pharmacological complications than observed with single agent chemotherapies and certain other combined therapies,

(4) provide for treating a broader spectrum of different cancer types in mammals, especially humans,

(5) provide for a higher response rate among treated patients,

(6) provide for a longer survival time among treated patients compared to standard chemotherapy treatments,

(7) provide a longer time for tumor progression, and/or

(8) yield efficacy and tolerability results at least as good as those of the agents used alone, compared to known instances where other cancer agent combinations produce antagonistic effects.

EXPERIMENTAL Abbreviations and Acronyms

A comprehensive list of the abbreviations used by organic chemists of ordinary skill in the art appears in The ACS Style Guide (third edition) or the Guidelines for Authors for the Journal of Organic Chemistry. The abbreviations contained in said lists, and all abbreviations utilized by organic chemists of ordinary skill in the art are hereby incorporated by reference. For purposes of this invention, the chemical elements are identified in accordance with the Periodic Table of the Elements, CAS version, Handbook of Chemistry and Physics, 67th Ed., 1986-87.

More specifically, when the following abbreviations are used throughout this disclosure, they have the following meanings:

-   -   acac acetylacetonate     -   Ac₂O acetic anhydride     -   AcO (or OAc) acetate     -   anhyd anhydrous     -   aq aqueous     -   Ar aryl     -   atm atmosphere     -   9-BBN 9-borabicyclo[3.3.1]nonyl     -   BINAP 2,2′-bis(diphenylphosphino)-1,1′-binaphthyl     -   Bn benzyl     -   bp boiling point     -   br s broad singlet     -   Bz benzoyl     -   BOC tert-butoxycarbonyl     -   n-BuOH n-butanol     -   t-BuOH tert-butanol     -   t-BuOK potassium tert-butoxide     -   C Celsius     -   calcd calculated     -   CAN ceric ammonium nitrate     -   Cbz carbobenzyloxy     -   CDI carbonyl diimidazole     -   CD₃OD methanol-d₄     -   Celite® diatomaceous earth filter agent, Celite® Corp.     -   CI-MS chemical ionization mass spectroscopy     -   ¹³C NMR carbon-13 nuclear magnetic resonance     -   m-CPBA meta-chloroperoxybenzoic acid     -   d doublet     -   dd doublet of doublets     -   DABCO 1,4-diazabicyclo[2.2.2]octane     -   DBU 1,8-diazabicyclo[5.4.0]undec-7-ene     -   DCC N,N′-dicyclohexylcarbodiimide     -   DCM dichloromethane     -   DEAD diethyl azodicarboxylate     -   dec decomposition     -   DIA diisopropylamine     -   DIBAL diisobutylaluminum hydride     -   DMAP 4-(N,N-dimethylamino)pyridine     -   DME 1,2-dimethoxyethane     -   DMF N,N-dimethylformamide     -   DMSO dimethylsulfoxide     -   E entgegen (configuration)     -   EDCI or 1-(3-dimethylaminopropyl)-3-ethylcarbodiimide     -   EDCI.HCl hydrochloride     -   ee enantiomeric excess     -   EI electron impact     -   ELSD evaporative light scattering detector     -   equiv equivalent     -   ES-MS electrospray mass spectroscopy     -   EtOAc ethyl acetate     -   EtOH ethanol (100%)     -   EtSH ethanethiol     -   Et₂O diethyl ether     -   Et₃N triethylamine     -   Fmoc 9-fluorenylmethoxycarbonyl     -   GC gas chromatography     -   GC-MS gas chromatography-mass spectroscopy     -   h hour, hours     -   hex hexanes, or hexane     -   ¹H NMR proton nuclear magnetic resonance     -   HMPA hexamethylphosphoramide     -   HMPT hexamethylphosphoric triamide     -   HOBT hydroxybenzotriazole     -   HPLC high performance liquid chromatography     -   insol insoluble     -   IPA isopropylamine     -   iPrOH isopropylalcohol     -   IR infrared     -   J coupling constant (NMR spectroscopy)     -   L liter     -   LAH lithium aluminum hydride     -   LC liquid chromatography     -   LC-MS liquid chromatography-mass spectrometry     -   LDA lithium diisopropylamide     -   M mol L⁻¹ (molar)     -   m multiplet     -   m meta     -   MeCN acetonitrile     -   MeOH methanol     -   MHz megahertz     -   min minute, minutes     -   μL microliter     -   mL milliliter     -   μM micromolar     -   mol mole     -   mp melting point     -   MS mass spectrum, mass spectrometry     -   Ms methanesulfonyl     -   m/z mass-to-charge ratio     -   N equiv L⁻¹ (normal)     -   NBS N-bromosuccinimide     -   nM nanomolar     -   NMM 4-methylmorpholine     -   NMR Nuclear Magnetic Resonance     -   o ortho     -   obsd observed     -   p para     -   p page     -   pp pages     -   PdCl₂dppf         [1,1′-bis(diphenylphosphino)ferrocene]dichloropalladium(II)     -   Pd(OAc)₂ palladium acetate     -   pH negative logarithm of hydrogen ion concentration     -   Ph phenyl     -   pK negative logarithm of equilibrium constant     -   pK_(a) negative logarithm of equilibrium constant for         association     -   PPA poly(phosphoric acid)     -   PS-DIEA Polystyrene-bound diisopropylethylamine     -   PyBOP benzotriazole-1-yl-oxy-tris-pyrrolidino-phosphonium         hexafluorophosphate     -   q quartet     -   rac racemic     -   R rectus (configurational)     -   R_(f) retardation factor (TLC)     -   RT retention time (HPLC)     -   rt room temperature     -   s singlet     -   S sinister (configurational)     -   t triplet     -   TBDMS, TBP tert-butyldimethylsilyl     -   TBDPS, TPS tert-butyldiphenylsilyl     -   TEA triethylamine     -   THF tetrahydrofuran     -   Tf trifluoromethanesulfonyl (triflyl)     -   TFA trifluoroacetic acid     -   TFFH Fluoro-N,N,N′,N′-tetramethylformamidinium         hexafluorophosphate     -   TLC thin layer chromatography     -   TMAD N,N,N′,N′-tetramethylethylenediamine     -   TMSCl trimethylsilyl chloride     -   Ts p-toluenesulfonyl     -   v/v volume to volume ratio     -   w/v weight to volume ratio     -   w/w weight to weight ratio     -   Z zusammen (configuration)

The percentage yields reported in the following examples are based on the starting component that was used in the lowest molar amount. Air and moisture sensitive liquids and solutions were transferred via syringe or cannula, and introduced into reaction vessels through rubber septa. Commercial grade reagents and solvents were used without further purification. The term “concentrated under reduced pressure” refers to use of a Buchi rotary evaporator at approximately 15 mm of Hg. All temperatures are reported uncorrected in degrees Celsius (° C.). Thin layer chromatography (TLC) was performed on pre-coated glass-backed silica gel 60 A F-254 250 μm plates.

The structures of compounds of this invention were confirmed using one or more of the following procedures.

NMR

NMR spectra were acquired for each compound and were consistent with the structures shown.

Routine one-dimensional NMR spectroscopy was performed on either 400 or 500 MHz Bruker® Avance spectrometers. The samples were dissolved in deuterated solvents. Chemical shifts were recorded on the ppm scale and were usually referenced to TMS (tetramethylsilane).

General Preparative Methods

The particular process to be utilized in the preparation of the compounds used in this embodiment of the invention depends upon the specific compound desired. Such factors as the selection of the specific substituents play a role in the path to be followed in the preparation of the specific compounds of this invention. Those factors are readily recognized by one of ordinary skill in the art.

The compounds of the invention may be prepared by use of known chemical reactions and procedures. Nevertheless, the following general preparative methods are presented to aid the reader in synthesizing the compounds of the present invention, with more detailed particular examples being presented below in the experimental section describing the working examples.

The compounds of the invention can be made according to conventional chemical methods, and/or as disclosed below, from starting materials which are either commercially available or producible according to routine, conventional chemical methods. General methods for the preparation of the compounds are given below, and the preparation of representative compounds is specifically illustrated in examples.

Synthetic transformations that may be employed in the synthesis of compounds of this invention and in the synthesis of intermediates involved in the synthesis of compounds of this invention are known by or accessible to one skilled in the art. Collections of synthetic transformations may be found in compilations, such as:

-   J. March. Advanced Organic Chemistry, 4th ed.; John Wiley: New York     (1992) -   R. C. Larock. Comprehensive Organic Transformations, 2nd ed.;     Wiley-VCH: New York (1999) -   F. A. Carey; R. J. Sundberg. Advanced Organic Chemistry, 2nd ed.;     Plenum Press: New York (1984) -   T. W. Greene; P. G. M. Wuts. Protective Groups in Organic Synthesis,     3rd ed.; John Wiley: New York (1999) -   L. S. Hegedus. Transition Metals in the Synthesis of Complex Organic     Molecules, 2nd ed.; University Science Books: Mill Valley, Calif.     (1994) -   L. A. Paquette, Ed. The Encyclopedia of Reagents for Organic     Synthesis; John Wiley: New York (1994) -   A. R. Katritzky; O. Meth-Cohn; C. W. Rees, Eds. Comprehensive     Organic Functional Group Transformations; Pergamon Press: Oxford, UK     (1995) -   G. Wilkinson; F. G A. Stone; E. W. Abel, Eds. Comprehensive     Organometallic Chemistry; Pergamon Press: Oxford, UK (1982) -   B. M. Trost; I. Fleming. Comprehensive Organic Synthesis; Pergamon     Press: Oxford, UK (1991) -   A. R. Katritzky; C. W. Rees Eds. Comprehensive Heterocylic     Chemistry; Pergamon Press: Oxford, UK (1984) -   A. R. Katritzky; C. W. Rees; E. F. V. Scriven, Eds. Comprehensive     Heterocylic Chemistry II; Pergamon Press: Oxford, UK (1996) -   C. Hansch; P. G. Sammes; J. B. Taylor, Eds. Comprehensive Medicinal     Chemistry: Pergamon Press: Oxford, UK (1990).

In addition, recurring reviews of synthetic methodology and related topics include Organic Reactions; John Wiley: New York; Organic Syntheses; John Wiley: New York; Reagents for Organic Synthesis: John Wiley: New York; The Total Synthesis of Natural Products; John Wiley: New York; The Organic Chemistry of Drug Synthesis; John Wiley: New York; Annual Reports in Organic Synthesis; Academic Press: San Diego Calif.; and Methoden der Organischen Chemie (Houben-Weyl); Thieme: Stuttgart, Germany.

Furthermore, databases of synthetic transformations include Chemical Abstracts, which may be searched using either CAS OnLine or SciFinder, Handbuch der Organischen Chemie (Beilstein), which may be searched using SpotFire, and REACCS.

Synthesis of 2-amino-N-{7-methoxy-8-[3-(3-oxomorpholin-4-yl)propoxy]-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl}pyrimidine-5-carboxamide

Step 1: Preparation of 8-(benzyloxy)-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-amine

8-(benzyloxy)-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-amine may be prepared for example as per the method described in PCT patent application WO WO2008/070150, Example 1, Step 7.

Step 2: Preparation of 2-amino-N-[8-(benzyloxy)-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide

36.3 g of (1H-benzotriazol-1-yloxy)(tripyrrolidin-1-yl)phosphonium hexafluorophosphate (PyBOP) and then 32.4 ml of diisopropyl ethyl amine were added to a mixture of 15 g of 8-(benzyloxy)-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-amine and 7.1 g of 2-aminopyrimidine-5-carboxylic acid in 150 ml of DMF. The reaction mixture was stirred at room temperature for 40 hours, and then was filtered. The collected solids were washed with ethyl acetate, and dried in vacuum to yield 17.4 g of the desired product which was directly used in the next step.

Step 3: Preparation of 2-amino-N-(8-hydroxy-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl)pyrimidine-5-carboxamide bis(trifluoroacetate)

84.4 ml of trifluoroacetic acid (TFA) were cooled to 0° C. 17.4 g of 2-amino-N-[8-(benzyloxy)-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl]pyrimidine-5-carboxamide were added in portions, the resulting mixture was heated up to 40° C., and stirred at this temperature for 16 hours. The temperature was raised to 70° C., and the mixture was stirred at this temperature for additional 6 hours. The reaction mixture was concentrated in vacuum, and co-distilled with 30 ml dichloromethane, 30 ml of n-hexane, 60 ml of an 1:1 mixture of dichloromethane:methanol (vol/vol), and finally 30 ml of dichloromethane. 30 ml of an 1:1 mixture of n-hexane:methanol were added to the residue, and the resulting suspension was stirred for 30 minutes at room temperature. The mixture was filtered. The collected solids were washed twice with an 1:1 mixture of n-hexane:methanol, and the dried in vacuum to yield 16.9 g. The exact trifluoroactic acid content of the product was not determined. The product was handled as a bis(trifluoracetate).

¹H-NMR (400 MHz, DMSO-d₆): δ [ppm]=13.48 (s, 1H), 12.02 (br s, 2H), 8.98 (s, 2H), 7.85 (d, 1H), 7.44-7.65 (m, 2H), 7.13 (d, 1H), 4.36-4.65 (m, 2H), 4.08-4.31 (m, 2H), 3.96 (s, 3H).

Step 4: Preparation of 4-(3-chloropropyl)morpholin-3-one

4.7 g of sodium hydride (60w %) were added to a mixture of 10 g of morpholin-3-one, 200 ml of 1,2-dimethoxymethane and 20 ml of DMF. The mixture was stirred at room temperature for 30 minutes. 18.7 g of 1-bromo-3-chloropropane were added slowly using a ice-water-cooling bath. The reaction mixture was stirred at room temperature for 16 hours, and then concentrated in vacuum. The residue was dissolved in 100 ml of dichloromethane and 100 ml of water. The layers were separated. The organic layer was washed three times with water, dried over sodium sulfate, and then concentrated in vacuum. The residue was co-distilled with 50 ml of n-heptane three times yielding 11.8 g of the desired product.

¹H-NMR (400 MHz, DMSO-d₆): δ [ppm]=4.01 (s, 2H), 3.75-3.87 (m, 2H), 3.64 (t, 2H), 3.42 (t, 2H), 3.29-3.37 (m, 2H), 1.96 (quin, 2H).

Step 5: Preparation of 2-amino-N-{7-methoxy-8-[3-(3-oxomorpholin-4-yl)propoxy]-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl}pyrimidine-5-carboxamide

A mixture of 16.9 g of 2-amino-N-(8-hydroxy-7-methoxy-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl)pyrimidine-5-carboxamide trifluoroacetate, 47.3 g of cesium carbonate, 10.3 g of 4-(3-chloropropyl)morpholin-3-one, and 450 ml of DMF was heated up to 80° C., and stirred at this temperature for 23 hours. Temperature was raised to 100° C., and the mixture stirred at this temperature for additional 3 hours. The mixture was cooled to room temperature, and 200 ml of water were added. The mixture was stirred for one hour, and the filtered. The collected solids were washed twice with water, and then twice with ethanol, and dried in vacuum to yield 7.3 g of the desired crude product which was used without purification in the next step.

Step 6: Preparation of 2-amino-N-{7-methoxy-8-[3-(3-oxomorpholin-4-yl)propoxy]-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl}pyrimidine-5-carboxamide hydrochloride

Aqueous hydrochloric acid (37 w %) was added to a mixture of 7.3 g of crude 2-amino-N-{7-methoxy-8-[3-(3-oxomorpholin-4-yl)propoxy]-2,3-dihydroimidazo[1,2-c]quinazolin-5-yl}pyrimidine-5-carboxamide as synthesized above, and 20 ml of water until pH 2 was reached. The mixture was stirred for two hours at room temperature, and then was filtered. n-Butanol was added to the filtrate, and the water was removed by azeotropic distillation. The resulting suspension was stirred at room temperature overnight, and then was filtered. The collected solids were washed with n-heptane, and dried in vacuum to yield 4.7 g.

1H-NMR (500 MHz, DMSO-d6): δ [ppm]=13.42 (s, 1H), 12.85 (br s, 1H), 9.00 (s, 2H), 8.34 (d, 1H), 7.55-7.76 (m, 2H), 7.41 (d, 1H), 4.33-4.56 (m, 2H), 4.28 (t, 2H), 4.08-4.24 (m, 2H), 4.03 (s, 3H), 4.01 (s, 2H), 3.84 (t, 2H), 3.54 (t, 2H), 3.40 (t, 2H), 2.07 (quin, 2H).

Biological Evaluation

The utility of the compounds of the present invention can be illustrated, for example, by their activity in vitro in the in vitro tumor cell proliferation assay described below. The link between activity in tumor cell proliferation assays in vitro and anti-tumor activity in the clinical setting has been very well established in the art. For example, the therapeutic utility of taxol (Silvestrini et al. Stem Cells 1993, 11(6), 528-35), taxotere (Bissery et al. Anti Cancer Drugs 1995, 6(3), 339), and topoisomerase inhibitors (Edelman et al. Cancer Chemother. Pharmacol. 1996, 37(5), 385-93) were demonstrated with the use of in vitro tumor proliferation assays.

Demonstration of the activity of the compounds of the present invention may be accomplished through in vitro, ex vivo, and in vivo assays that are well known in the art. For example, to demonstrate the activity of the compounds of the present invention, the following assays may be used.

Biological Assays

The effects of the compounds of the present invention were examined by the following assays.

[Determination of IC50 Values of Compounds in Kinase Assay of PI3Kα]

Chemicals and Assay Materials

Phosphatidylinositol (Ptdlns) and phosphatidylserine (PtdSer) were purchased from DOOSAN SERDARY RESEARCH LABORATORIES (Toronto, Canada). Recombinant truncated forms (ΔN 1-108) of the human p110α and p110β subunits of PI3K with N-terminal His₆-Tags were expressed in S. frugiperda 9 insect cells. Recombinant human PI3Kγ (full length human PI3K p1107 fused with a His₆-tag at the C-terminus expressed in S. frugiperda 9 insect cells) was obtained from ALEXIS BIOCHEMICALS (#201-055-C010; San Diego, Calif.). [γ³³P]ATP and unlabeled ATP were purchased from AMERSHAM PHARMACIA BIOTECH (Buckinghamshire, UK) and ROCHE DIAGNOSTICS (Mannheim, Germany), respectively. Scintillation cocktails Ultima Gold™ scintillation cocktail were purchased from PERKIN ELMER. Maxisorp™ plates were purchased from NALGE NUNC INTERNATIONAL K.K. (Tokyo, Japan). All other chemicals not further specified were from WAKO PURE CHEMICALS (Osaka, Japan).

Solid-Phase Lipid Kinase Assay

To assess inhibition of PI3Kα by compounds, the Maxisorp™ plates were coated with 50 μL/well of a solution containing 50 μg/ml Ptdlns and 50 μg/ml PtdSer dissolved in chloroform:ethanol (3:7). The plates were subsequently air-dried by incubation for at least 2 hours in a fume hood. The reaction was set up by mixing 25 μL/well of assay buffer 2× (100 mM MOPSO/NaOH, 0.2 M NaCl, pH 7.0, 8 mM MgCl₂, 2 mg/mL BSA (fatty acid-free)), and 7.5 ng/well PI3Kα in the lipid pre-coated plate. 10× test compounds were added in 2% DMSO. The reaction was started by adding 5 μL/well of a 40 μM ATP mix (final 10 μM ATP; 20 μCi/ml[γ³³P]ATP). After incubation at RT for 2 hours, the reaction was terminated by adding 5 μl/well stop solution (25 mM EDTA, pH 8.0). The plate was then washed twice with Tris-buffered saline (TBS, pH 7.4). Ultima Gold™ (PERKINELMER) scintillation mix was added at 25 μL/well.

The radioactivity incorporated into the immobilized PI substrate was determined with a BetaPlate Liquid Scintillation Counter (PerkinElmer).

The inhibition percent at each concentration of compound was calculated, and IC₅₀ values were determined from the inhibition of curve.

The following compounds displayed the following IC₅₀ values in the Solid-Phase Lipid p110α assay:

assay

p110α IC₅₀ (nM) 0.7 [Isozyme Selectivity Test in PI3K] Chemicals and Assay Materials

A recombinant truncated form (ΔN 1-108) of the human p110β or p100α subunit of PI3K with an N-terminal His₆-Tag was expressed in S. frugiperda 9 insect cells. Recombinant human PI3Kγ (full length human PI3K p110γ fused with a His₆-tag at the C-terminus expressed in S. frugiperda 9 insect cells) was obtained from ALEXISBIOCHEMICALS(#201-055-C010; San Diego, Calif.).

Determination of IC₅₀ Values of Compounds in Kinase Assays of PI3Kβ and PI3Kγ

Kinase assays using recombinant truncated p110β or the full length p110γ were performed in a similar manner as described in the part of [Determination of IC₅₀ values of compounds in kinase assay of PI3Kα] except that these isoforms were assayed using 7.5 ng and 25.0 ng of protein/well, respectively.

The following compounds displayed the following IC₅₀ values in the Solid-Phase Lipid Kinase p110β assay:

assay

p110β IC₅₀ (nM) 13 [Determination of IC₅₀ Values of Compounds in Cell Based Assays of PI3Kα Activity] Chemicals and Assay Materials

96-well collagen treated clear bottom/black sided Costar plates were purchased from CORNINGLIFESCIENCES(Corning, N.Y.; at.#3904). Gibco RPMI medium (Cat.#11875), Biosource anti-phospho-AKT (Ser 473) antibody (Cat.#44-621G) and recombinant IGF-1 (Cat.# PHG0074) were purchased from INVITROGEN(Carlsbad, Calif.). The secondary donkey anti-rabbit IgG horse radish peroxidase conjugate (Cat. # NA934V) and ECL chemiluminesence reagent (Cat.# RPN2209) were purchased from AMERSHAM (Buckinghamshire, UK). Cell culture tested bovine serum albumin solution (35% in DPBS; Cat.# A7979) and all other chemicals were purchased from SIGMA (St. Louis, Mo.). The Wallac Victor2 1420 Multilabel HTS Counter was purchased from PERKINELMER(Wellesley, Mass.)

IGF-1 Induced AKT Phosphorylation Assay

To test inhibition of IGF-1 induced AKT phosphorylation by compounds, A549 cells (5×10⁴ cells/well) were seeded in 100 μL of 0.1% bovine serum albumin (BSA) in RPMI medium in 96-well collagen treated clear bottom/black sided plates and incubated overnight at 37° C. in a 5% CO₂ incubator. 10× compound solution (in 0.1% BSA in RPMI) was added to the plates and incubation at 37° C. was continued for 1 hour. All wells (except no IGF-1 controls) were then treated with 25 ng/ml IGF-1 for 10 minutes at 37° C. in a 5% CO₂ incubator. Following removal of the supernatants and washing with the wells with TBS (50 mM Tris pH 8.0 containing 138 mM NaCL and 27 mM KCl), 200 μL of 3.7% formaldehyde in TBS was added to each well, and the plate was incubated at 4° C. for 10 minutes. Supernatants were once again removed and replaced with 50 μL Methanol (−20° C.) and the plate incubated at 4° C. f or 5 minutes. 200 μL of 0.1% BSA in TBS was then added to each well and the plate incubated at room temperature for ½ hour. Supernatants were removed and 50 μL of a solution comprising the primary anti-phospho-AKT (Ser 473) antibody diluted 1:250 in TBS containing 0.1% BSA was added to each well (except control/background wells). The plate was then incubated for 1½ hour at room temperature. Supernatants were removed, each well was washed 3 times with 200 μL TBS, and 100 μL of a solution containing the secondary donkey anti-rabbit IgG antibody HRP-conjugate diluted 1:100 in TBS-T (TBS containing 0.1% triton). Plates were then incubated for 1 hour at room temperature. After removing the secondary antibody, each well was washed 6 times with cold TBS-T, 100 μL of ECL was added to each well, and the plate was placed on an orbital shaker for 1 minute. The plates were then read on a Wallac Victor2 1420 Multilabel HTS Counter using the luminometry window (maximum light detection is measured at 428 nM). IC₅₀ values were determined from the inhibition curve.

Mouse

To evaluate the in vivo anti-tumor effect of PI3K inhibitors, efficacy studies were conducted in the NCr athymic female mice (Taconic, N.Y.). Human carcinoma cells of various histological types were harvested from mid-log phase cultures using Trypsin-EDTA (Gibco). Cells were pelleted, rinsed twice, and resuspended in sterile HBSS (Hank's Balanced Salt Solution) to final concentration of 2.5×10⁶ cells/ml. Cells were implanted subcutaneously (s.c.) in a 0.2 ml volume (5×10⁶ cells) into the right flank. When tumors reached an average size of ˜100-125 mg, the mice were randomized, and treatment initiated. Each experimental group consisted of 10 mice and the dosing volume was 10 ml/kg body weight. Compounds were dissolved in a compatible vehicle for both intravenous and oral administration. For intravenous administration, mice are placed under a heat lamp to warm for 5 minutes, then placed in a restraining device and the tail vein injected with a sterile 27 gauge ½ inch needle. Oral dosing utilizes sterile disposable feeding needles (20 gauge/1½ inches) from Popper and Sons, New Hyde Park, N.Y. Tumor growth was measured with electronic calipers 2-3 times a week and tumor weight (mg) calculated according to the following formula: [length (mm)×width (mm)2]/2. Percent inhibition or tumor growth inhibition (TGI) is calculated on days of measurement using the following formula: (100−mean tumor value of treated (T)/mean tumor of control value (C)×100)=% T/C. Of note: the control used in the calculations is either the “untreated control” or “vehicle”, whichever provides the most conservative representation of the data.

Rat

To evaluate the in vivo anti-tumor effect of PI3K inhibitors, efficacy studies were conducted in the HSD athymic female rats (Harlan, ID). Human carcinoma cells of various histological types were harvested from mid-log phase cultures using Trypsin-EDTA (Gibco). Cells were pelleted, rinsed twice, and resuspended in sterile HBSS (Hank's Balanced Salt Solution) to final concentration of 2.5×106 cells/ml. Cells were implanted subcutaneously (s.c.) in a 0.2 ml volume (5×106 cells) into the right flank. When tumors reached an average size of ˜200-400 mg, the rats were randomized, and treatment initiated. Each experimental group consisted of 10 nude rats. Compounds were dissolved in a compatible vehicle for both intravenous and oral administration. For intravenous administration of compound, rats were warmed under a heating lamp for 5 minutes, then placed in a restraining device, and injected intravenously via the tail vein using a dosing volume ranging from 2 mL/kg to 5 mL/kg with a sterile 25 gauge needle. Oral dosing utilizes sterile disposable feeding needles (18 gauge/2 inch) from Popper and Sons, New Hyde Park, N.Y. Tumor growth was measured with electronic calipers 2-3 times a week and tumor weight (mg) calculated according to the following formula: [length (mm)×width (mm)2]/2. Percent inhibition or tumor growth inhibition (TGI) is calculated on days of measurement using the following formula: (100−mean tumor value of treated (T)/mean tumor of control value (C)×100)=% T/C. Of note: the control used in the calculations is either the “untreated control” or “vehicle”, whichever provides the most conservative representation of the data.

It is believed that one skilled in the art, using the preceeding information and information available in the art, can utilize the present invention to its fullest extent. Those skilled in the art will recognize that the invention may be practiced with variations on the disclosed structures, materials, compositions and methods without departing from the spirit or scope of the invention as it is set forth herein and such variations are regarded as within the ambit of the invention. The compounds described in the examples are intended to be representative of the invention, and it will be understood that the scope of the invention is not limited by the scope of the examples. The topic headings set forth above are meant as guidance where certain information can be found in the application, but are not intended to be the only source in the application where information on such topics can be found. All publications and patents cited above are incorporated herein by reference.

REFERENCES

-   1. Abbosh, P. H.; Nephew, K. P. Multiple signaling pathways converge     on b-catenin in thyroid cancer. Thyroid 2005, 15, 551-561. -   2. Ali, I. U.; Schriml, L. M.; Dean, M. Mutational spectra of     PTEN/MMAC1 gene: a tumor suppressor with lipid phosphatase     activity. J. Natl. Cancer Inst. 1999, 91, 1922-1932. -   3. Bachman, K. E.; Argani, P.; Samuels, Y.; Silliman, N.; Ptak, J.;     Szabo, S.; Konishi, H.; Karakas, B.; Blair, B. G.; Lin, C.;     Peters, B. A.; Velculescu, V. E.; Park, B. H. The PIK3CA gene is     mutated with high frequency in human breast cancers. Cancer Biol.     Therap. 2004, 3, 772-775. -   4. Bader, A. G.; Kang, S.; Vogt, P. K. Cancer-specific mutations in     PIK3CA are oncogenic in vivo. Proc. Natl. Acad. Sci. U.S.A 2006,     103, 1475-1479. -   5. Barthwal, M. K.; Sathyanarayana, P.; Kundu, C. N.; Rana, B.;     Pradeep, A.; Sharma, C.; Woodgett, J. R.; Rana, A. Negative     Regulation of Mixed Lineage Kinase 3 by Protein Kinase B/AKT Leads     to Cell Survival. J. Biol. Chem. 2003, 278, 3897-3902. -   6. Bénistant, C.; Chapuis, H.; Roche, S. A specific function for     phosphatidylinositol 3-kinase a (p85a-p110a) in cell survival and     for phosphatidylinositol 3-kinase b (p85a-p110b) in de novo DNA     synthesis of human colon carcinoma cells. Oncogene 2000, 19,     5083-5090. -   7. Broderick, D. K.; Di, C.; Parrett, T. J.; Samuels, Y. R.;     Cummins, J. M.; McLendon, R. E.; Fults, D. W.; Velculescu, V. E.;     Bigner, D. D.; Yan, H. Mutations of PIK3CA in anaplastic     oligodendrogliomas, high-grade astrocytomas, and medulloblastomas.     Cancer Res. 2004, 64, 5048-5050. -   8. Brown, R. A.; Shepherd, P. R. Growth factor regulation of the     novel class II phosphoinositide 3-kinases. Biochem. Soc. Trans.     2001, 29, 535-537. -   9. Brunet, A.; Bonni, A.; Zigmond, M. J.; Lin, M. Z.; Juo, P.;     Hu, L. S.; Anderson, M. J.; Arden, K. C.; Blenis, J.;     Greenberg, M. E. Akt promotes cell survival by phosphorylating and     inhibiting a Forkhead transcription factor. Cell 1999, 96, 857-868. -   10. Byun, D.-S.; Cho, K.; Ryu, B.-K.; Lee, M.-G.; Park, J.-I.; Chae,     K.-S.; Kim, H.-J.; Chi, S.-G. Frequent monoallelic deletion of PTEN     and its reciprocal association with PIK3CA amplification in gastric     carcinoma. Int. J. Cancer 2003, 104, 318-327. -   11. Campbell, I. G.; Russell, S. E.; Choong, D. Y. H.;     Montgomery, K. G.; Ciavarella, M. L.; Hooi, C. S. F.; Cristiano, B.     E.; Pearson, R. B.; Phillips, W. A. Mutation of the PIK3CA gene in     ovarian and breast cancer. Cancer Res. 2004, 64, 7678-7681. -   12. Cardone, M. H.; Roy, N.; Stennicke, H. R.; Salvesen, G. S.;     Franke, T. F.; Stanbridge, E.; Frisch, S.; Reed, J. C. Regulation of     cell death protease caspase-9 by phosphorylation. Science 1998, 282,     1318-1321. -   13. Chen, Y. L.; Law, P.-Y.; Loh, H. H. Inhibition of PI3K/Akt     signaling: An emerging paradigm for targeted cancer therapy. Curr.     Med. Chem. Anticancer Agents 2005, 5, 575-589. -   14. Ciechomska, I.; Pyrzynska, B.; Kazmierczak, P.; Kaminska, B.     Inhibition of Akt kinase signalling and activation of Forkhead are     indispensable for up-regulation of FasL expression in apoptosis of     glioma cells. Oncogene 2003, 22, 7617-7627. -   15. Cross, D. A. E.; Alessi, D. R.; Cohen, P.; Andjelkovich, M.;     Hemmings, B. A. Inhibition of glycogen synthase kinase-3 by insulin     mediated by protein kinase B. Nature 1995, 378, 785-9. -   16. Cully, M.; You, H.; Levine, A. J.; Mak, T. W. Beyond PTEN     mutations: the PI3K pathway as an integrator of multiple inputs     during tumorigenesis. Nat. Rev. Cancer 2006, 6, 184-192. -   17. Czauderna, F.; Fechtner, M.; Aygun, H.; Arnold, W.; Klippel, A.;     Giese, K.; Kaufmann, J. Functional studies of the PI(3)-kinase     signalling pathway employing synthetic and expressed siRNA. Nucleic     Acids Res. 2003, 31, 670-682. -   18. del Peso, L.; Gonzalez-Garcia, M.; Page, C.; Herrera, R.;     Nunez, G. Interleukin-3-induced phosphorylation of BAD through the     protein kinase Akt. Science 1997, 278, 687-689. -   19. Diehl, J. A.; Cheng, M.; Roussel, M. F.; Sherr, C. J. Glycogen     synthase kinase-3b regulates cyclin D1 proteolysis and subcellular     localization. Genes Dev. 1998, 12, 3499-3511. -   20. Dijkers, P. F.; Medema, R. H.; Lammers, J.-W. J.; Koenderman,     L.; Coffer, P. J. Expression of the pro-apoptotic Bcl-2 family     member Bim is regulated by the Forkhead transcription factor     FKHR-L1. Curr. Biol. 2000, 10, 1201-1204. -   21. Domin, J.; Waterfield, M. D. Using structure to define the     function of phosphoinositide 3-kinase family members. FEBS Lett.     1997, 410, 91-95. -   22. Downes, C. P.; Gray, A.; Lucocq, J. M. Probing phosphoinositide     functions in signaling and membrane trafficking. Trends Cell Biol.     2005, 15, 259-268. -   23. Figueroa, C.; Tarras, S.; Taylor, J.; Vojtek, A. B. Akt2     negatively regulates assembly of the POSH-MLK-JNK signaling     complex. J. Biol. Chem. 2003, 278, 47922-47927. -   24. Fleming, I. N.; Gray, A.; Downes, C. P. Regulation of the     Rac1-specific exchange factor tiam1 involves both phosphoinositide     3-kinase-dependent and -independent components. Biochem. J. 2000,     351, 173-182. -   25. Funaki, M.; Katagiri, H.; Inukai, K.; Kikuchi, M.; Asano, T.     Structure and function of phosphatidylinositol-3,4 kinase. Cell.     Signal. 2000, 12, 135-142. -   26. Gallia, G. L.; Rand, V.; Siu, I. M.; Eberhart, C. G.; James, C.     D.; Marie, S. K. N.; Oba-Shinjo, S. M.; Carlotti, C. G.;     Caballero, O. L.; Simpson, A. J. G.; Brock, M. V.; Massion, P. P.;     Carson, B. S., Sr.; Riggins, G. J. PIK3CA gene mutations in     pediatric and adult glioblastoma multiforme. Mol. Cancer Res. 2006,     4, 709-714. -   27. Gershtein, E. S.; Shatskaya, V. A.; Ermilova, V. D.;     Kushlinsky, N. E.; Krasil'nikov, M. A. Phosphatidylinositol 3-kinase     expression in human breast cancer. Clin. Chim. Acta 1999, 287,     59-67. -   28. Gottschalk, A. R.; Doan, A.; Nakamura, J. L.; Stokoe, D.;     Haas-Kogan, D. A. Inhibition of phosphatidylinositol-3-kinase causes     increased sensitivity to radiation through a PKB-dependent     mechanism. Int. J. Radiat. Oncol. Biol. Phys. 2005, 63, 1221-1227. -   29. Gupta, A. K.; Cerniglia, G. J.; Mick, R.; Ahmed, M. S.;     Bakanauskas, V. J.; Muschel, R. J.; McKenna, W. G. Radiation     sensitization of human cancer cells in vivo by inhibiting the     activity of PI3K using LY294002. Int. J. Radiat. Oncol. Biol. Phys.     2003, 56, 846-853. -   30. Haas-Kogan, D.; Shalev, N.; Wong, M.; Mills, G.; Yount, G.;     Stokoe, D. Protein kinase B (PKB/Akt) activity is elevated in     glioblastoma cells due to mutation of the tumor suppressor     PTEN/MMAC. Curr. Biol. 1998, 8, 1195-1198. -   31. Hartmann, C.; Bartels, G.; Gehlhaar, C.; Holtkamp, N.; von     Deimling, A. PIK3CA mutations in glioblastoma multiforme. Acta     Neuropathol. 2005, 109, 639-642. -   32. Hennessy, B. T.; Smith, D. L.; Ram, P. T.; Lu, Y.; Mills, G. B.     Exploiting the PI3K/AKT Pathway for Cancer Drug Discovery. Nat. Rev.     Drug Disc. 2005, 4, 988-1004. -   33. Hodgkinson, C. P.; Sale, E. M.; Sale, G. J. Characterization of     PDK2 activity against Protein Kinase B gamma. Biochemistry 2002, 41,     10351-10359. -   34. Hresko, R. C.; Murata, H.; Mueckler, M.     Phosphoinositide-dependent Kinase-2 is a distinct protein kinase     enriched in a novel cytoskeletal fraction associated with adipocyte     plasma membranes. J. Biol. Chem. 2003, 278, 21615-21622. -   35. Huang, C.; Ma, W.-Y.; Dong, Z. Requirement for     phosphatidylinositol 3-kinase in epidermal growth factor-induced     AP-1 transactivation and transformation in JB6 P+ cells. Mol. Cell.     Biol. 1996, 16, 6427-6435. -   36. Hupp, T. R.; Lane, D. P.; Ball, K. L. Strategies for     manipulating the p53 pathway in the treatment of human cancer.     Biochem. J. 2000, 352, 1-17. -   37. Ihle, N. T.; Williams, R.; Chow, S.; Chew, W.; Berggren, M. I.;     Paine-Murrieta, G.; Minion, D. J.; Halter, R. J.; Wipf, P.; Abraham,     R.; Kirkpatrick, L.; Powis, G. Molecular pharmacology and antitumor     activity of PX-866, a novel inhibitor of phosphoinositide-3-kinase     signaling. Mol. Cancer Therap. 2004, 3, 763-772. -   38. Ikenoue, T.; Kanai, F.; Hikiba, Y.; Obata, T.; Tanaka, Y.;     Imamura, J.; Ohta, M.; Jazag, A.; Guleng, B.; Tateishi, K.; Asaoka,     Y.; Matsumura, M.; Kawabe, T.; Omata, M. Functional analysis of     PIK3CA gene mutations in human colorectal cancer. Cancer Res. 2005,     65, 4562-4567. -   39. Ishii, N.; Maier, D.; Merlo, A.; Tada, M.; Sawamura, Y.;     Diserens, A.-C.; Van Meir, E. G. Frequent co-alterations of TP53,     p16/CDKN2A, p14ARF, PTEN tumor suppressor genes in human glioma cell     lines. Brain Pathol. 1999, 9, 469-479. -   40. Itoh, T.; Takenawa, T. Phosphoinositide-binding domains.     Functional units for temporal and spatial regulation of     intracellular signalling. Cell. Signal. 2002, 14, 733-743. -   41. Janssen, J. W. G.; Schleithoff, L.; Bartram, C. R.;     Schulz, A. S. An oncogenic fusion product of the     phosphatidylinositol 3-kinase p85b subunit and HUMORF8, a putative     deubiquitinating enzyme. Oncogene 1998, 16, 1767-1772. -   42. Jimenez, C.; Jones, D. R.; Rodriguez-Viciana, P.;     Gonzalez-Garcia, A.; Leonardo, E.; Wennstrom, S.; Von Kobbe, C.;     Toran, J. L.; R.-Borlado, L.; Calvo, V.; Copin, S. G.; Albar, J. P.;     Gaspar, M. L.; Diez, E.; Marcos, M. A. R.; Downward, J.; Martinez-A,     C.; Merida, I.; Carrera, A. C. Identification and characterization     of a new oncogene derived from the regulatory subunit of     phosphoinositide 3-kinase. EMBO J. 1998, 17, 743-753. -   43. Jucker, M.; Sudel, K.; Horn, S.; Sickel, M.; Wegner, W.;     Fiedler, W.; Feldman, R. A. Expression of a mutated form of the p85a     regulatory subunit of phosphatidylinositol 3-kinase in a Hodgkin's     lymphoma-derived cell line (CO). Leukemia 2002, 16, 894-901. -   44. Kang, S.; Bader, A. G.; Vogt, P. K. Phosphatidylinositol     3-kinase mutations identified in human cancer are oncogenic. Proc.     Natl. Acad. Sci. U.S.A 2005, 102, 802-807. -   45. Kang, S.; Denley, A.; Vanhaesebroeck, B.; Vogt, P. K. Oncogenic     transformation induced by the p110b, -g, and -d isoforms of class I     phosphoinositide 3-kinase. Proc. Natl. Acad. Sci. U.S.A 2006, 103,     1289-1294. -   46. Katso, R.; Okkenhaug, K.; Ahmadi, K.; White, S.; Timms, J.;     Waterfield, M. D. Cellular function of phosphoinositide 3-kinases:     implications for development, immunity, homeostasis, and cancer.     Annu. Rev. Cell Dev. Biol. 2001, 17, 615-675. -   47. Kim, A. H.; Khursigara, G.; Sun, X.; Franke, T. F.; Chao, M. V.     Akt phosphorylates and negatively regulates apoptosis     signal-regulating kinase 1. Mol. Cell. Biol. 2001, 21, 893-901. -   48. Kim, D.; Dan, H. C.; Park, S.; Yang, L.; Liu, Q.; Kaneko, S.;     Ning, J.; He, L.; Yang, H.; Sun, M.; Nicosia, S. V.; Cheng, J. Q.     AKT/PKB signaling mechanisms in cancer and chemoresistance. Front.     Biosci. 2005, 10, 975-987. -   49. Klippel, A.; Kavanaugh, W. M.; Pot, D.; Williams, L. T. A     specific product of phosphatidylinositol 3-kinase directly activates     the protein kinase Akt through its pleckstrin homology domain. Mol.     Cell. Biol. 1997, 17, 338-44. -   50. Kodaki, T.; Woscholski, R.; Hallberg, B.; Rodriguez-Viciana, P.;     Downward, J.; Parker, P. J. The activation of phosphatidylinositol     3-kinase by Ras. Curr. Biol. 1994, 4, 798-806. -   51. Kops, G. J. P. L.; De Ruiter, N. D.; De Vries-Smits, A. M. M.;     Powell, D. R.; Bos, J. L.; Burgering, B. M. T. Direct control of the     Forkhead transcription factor AFX by protein kinase B. Nature 1999,     398, 630-634. -   52. Lee, J. T., Jr.; Steelman, L. S.; McCubrey, J. A.     Phosphatidylinositol 3′-Kinase Activation Leads to Multidrug     Resistance Protein-1 Expression and Subsequent Chemoresistance in     Advanced Prostate Cancer Cells. Cancer Res. 2004, 64, 8397-8404. -   53. Lee, J. W.; Soung, Y. H.; Kim, S. Y.; Lee, H. W.; Park, W. S.;     Nam, S. W.; Kim, S. H.; Lee, J. Y.; Yoo, N. J.; Lee, S. H. PIK3CA     gene is frequently mutated in breast carcinomas and hepatocellular     carcinomas. Oncogene 2005, 24, 1477-1480. -   54. Lemmon, M. A. Phosphoinositide recognition domains. Traffic     2003, 4, 201-213. -   55. Levine, D. A.; Bogomolniy, F.; Yee, C. J.; Lash, A.; Barakat, R.     R.; Borgen, P. I.; Boyd, J. Frequent Mutation of the PIK3CA Gene in     Ovarian and Breast Cancers. Clin. Cancer Res. 2005, 11, 2875-2878. -   56. Li, J.; Yen, C.; Liaw, D.; Podsypanina, K.; Bose, S.; Wang, S.     I.; Puc, J.; Miliaresis, C.; Rodgers, L.; McCombie, R.; Bigner, S.     H.; Giovanella, B. C.; Ittmann, M.; Tycko, B.; Hibshoosh, H.;     Wigler, M. H.; Parsons, R. PTEN, a putative protein tyrosine     phosphatase gene mutated in human brain, breast, and prostate     cancer. Science 1997, 275, 1943-1947. -   57. Li, V. S. W.; Wong, C. W.; Chan, T. L.; Chan, A. S. W.; Zhao,     W.; Chu, K.-M.; So, S.; Chen, X.; Yuen, S. T.; Leung, S. Y.     Mutations of PIK3CA in gastric adenocarcinoma. BMC Cancer 2005, 5,     29. -   58. Liao, Y.; Hung, M.-C. Regulation of the activity of p38     mitogen-activated protein kinase by Akt in cancer and adenoviral     protein E1A-mediated sensitization to apoptosis.

Mol. Cell. Biol. 2003, 23, 6836-6848.

-   59. Lopez-llasaca, M.; Li, W.; Uren, A.; Yu, J.-c.; Kazlauskas, A.;     Gutkind, J. S.; Heidaran, M. A. Requirement of     phosphatidylinositol-3 kinase for activation of JNK/SAPKs by PDGF.     Biochem. Biophys. Res. Commun. 1997, 232, 273-277. -   60. Ma, Y.-Y.; Wei, S.-J.; Lin, Y.-C.; Lung, J.-C.; Chang, T.-C.;     Whang-Peng, J.; Liu, J. M.; Yang, D.-M.; Yang, W. K.; Shen, C.-Y.     PIK3CA as an oncogene in cervical cancer. Oncogene 2000, 19,     2739-2744. -   61. Mayo, L. D.; Dixon, J. E.; Durden, D. L.; Tonks, N. K.;     Donner, D. B. PTEN protects p53 from Mdm2 and sensitizes cancer     cells to chemotherapy. J. Biol. Chem. 2002, 277, 5484-5489. -   62. Momand, J.; Wu, H.-H.; Dasgupta, G. MDM2-master regulator of the     p53 tumor suppressor protein. Gene 2000, 242, 15-29. -   63. Motti, M. L.; De Marco, C.; Califano, D.; Fusco, A.;     Viglietto, G. Akt-dependent T198 phosphorylation of cyclin-dependent     kinase inhibitor p27kip1 in breast cancer. Cell Cycle 2004, 3,     1074-1080. -   64. Myers, M. P.; Pass, I.; Batty, I. H.; Van Der Kaay, J.;     Stolarov, J. P.; Hemmings, B. A.; Wigler, M. H.; Downes, C. P.;     Tonks, N. K. The lipid phosphatase activity of PTEN is critical for     its tumor suppressor function. Proc. Natl. Acad. Sci. U.S.A 1998,     95, 13513-13518. -   65. Nagata, Y.; Lan, K.-H.; Zhou, X.; Tan, M.; Esteva, F. J.;     Sahin, A. A.; Klos, K. S.; Li, P.; Monia, B. P.; Nguyen, N. T.;     Hortobagyi, G. N.; Hung, M.-C.; Yu, D. PTEN activation contributes     to tumor inhibition by trastuzumab, and loss of PTEN predicts     trastuzumab resistance in patients. Cancer Cell 2004, 6, 117-127. -   66. Naito, A. T.; Akazawa, H.; Takano, H.; Minamino, T.; Nagai, T.;     Aburatani, H.; Komuro, I. Phosphatidylinositol 3-Kinase-Akt Pathway     Plays a Critical Role in Early Cardiomyogenesis by Regulating     Canonical Wnt Signaling. Circ. Res. 2005, 97, 144-151. -   67. Oda, K.; Stokoe, D.; Taketani, Y.; McCormick, F. High Frequency     of Coexistent Mutations of PIK3CA and PTEN Genes in Endometrial     Carcinoma. Cancer Res. 2005, 65, 10669-10673. -   68. Ogawara, Y.; Kishishita, S.; Obata, T.; Isazawa, Y.; Suzuki, T.;     Tanaka, K.; Masuyama, N.; Gotoh, Y. Akt enhances Mdm2-mediated     ubiquitination and degradation of p53. J. Biol. Chem. 2002, 277,     21843-21850. -   69. Olson, J. M.; Hallahan, A. R. p38 MAPkinase: a convergence point     in cancer therapy. Trends Mol. Med. 2004, 10, 125-129. -   70. Osaki, M.; Oshimura, M.; Ito, H. PI3K-Akt pathway: Its functions     and alterations in human cancer. Apoptosis 2004, 9, 667-676. -   71. Pastorino, J. G.; Tafani, M.; Farber, J. L. Tumor necrosis     factor induces phosphorylation and translocation of BAD through a     phosphatidylinositide-3-OH kinase-dependent pathway. J. Biol. Chem.     1999, 274, 19411-19416. -   72. Pendaries, C.; Tronchere, H.; Plantavid, M.; Payrastre, B.     Phosphoinositide signaling disorders in human diseases. FEBS Lett.     2003, 546, 25-31. -   73. Phillips, W. A.; St. Clair, F.; Munday, A. D.; Thomas, R. J. S.;     Mitchell, C. A. Increased levels of phosphatidylinositol 3-kinase     activity in colorectal tumors. Cancer 1998, 83, 41-47. -   74. Philp, A. J.; Campbell, I. G.; Leet, C.; Vincan, E.; Rockman, S.     P.; Whitehead, R. H.; Thomas, R. J. S.; Phillips, W. A. The     phosphatidylinositol 3′-kinase p85a gene is an oncogene in human     ovarian and colon tumors. Cancer Res. 2001, 61, 7426-7429. -   75. Powis, G.; Bonjouklian, R.; Berggren, M. M.; Gallegos, A.;     Abraham, R.; Ashendel, C.; Zalkow, L.; Matter, W. F.; Dodge, J.     Wortmannin, a potent and selective inhibitor of     phosphatidylinositol-3-kinase. Cancer Res. 1994, 54, 2419-23. -   76. Pu, P.; Kang, C.; Zhang, Z.; Liu, X.; Jiang, H. Downregulation     of PIK3CB by siRNA suppresses malignant glioma cell growth in vitro     and in vivo. Technol. Cancer Res. Treat. 2006, 5, 271-280. -   77. Rahimi, N.; Tremblay, E.; Elliott, B. Phosphatidylinositol     3-kinase activity is required for hepatocyte growth factor-induced     mitogenic signals in epithelial cells. J. Biol. Chem. 1996, 271,     24850-24855. -   78. Roche, S.; Downward, J.; Raynal, P.; Courtneidge, S. A. A     function for phosphatidylinositol 3-kinase b (p85a-p110b) in     fibroblasts during mitogenesis: requirement for insulin- and     lysophosphatidic acid-mediated signal transduction. Mol. Cell. Biol.     1998, 18, 7119-7129. -   79. Roche, S.; Koegl, M.; Courtneidge, S. A. The     phosphatidylinositol 3-kinase a is required for DNA synthesis     induced by some, but not all, growth factors. Proc. Natl. Acad. Sci.     U.S.A 1994, 91, 9185-9. -   80. Romashkova, J. A.; Makarov, S. S. Nf-kB is a target of Akt in     anti-apoptotic PDGF signalling. Nature 1999, 401, 86-90. -   81. Saal, L. H.; Holm, K.; Maurer, M.; Memeo, L.; Su, T.; Wang, X.;     Yu, J. S.; Malmstroem, P.-O.; Mansukhani, M.; Enoksson, J.;     Hibshoosh, H.; Borg, A.; Parsons, R. PIK3CA mutations correlate with     hormone receptors, node metastasis, and ERBB2, and are mutually     exclusive with PTEN loss in human breast carcinoma. Cancer Res.     2005, 65, 2554-2559. -   82. Samuels, Y.; Diaz, L. A., Jr.; Schmidt-Kittler, O.; Cummins, J.     M.; DeLong, L.; Cheong, I.; Rago, C.; Huso, D. L.; Lengauer, C.;     Kinzler, K. W.; Vogelstein, B.; Velculescu, V. E. Mutant PIK3CA     promotes cell growth and invasion of human cancer cells. Cancer Cell     2005, 7, 561-573. -   83. Samuels, Y.; Ericson, K. Oncogenic PI3K and its role in cancer.     Curr. Opin. Oncol. 2006, 18, 77-82. -   84. Samuels, Y.; Wang, Z.; Bardelli, A.; Silliman, N.; Ptak, J.;     Szabo, S.; Yan, H.; Gazdar, A.; Powell, S. M.; Riggins, G. J.;     Willson, J. K. V.; Markowitz, S.; Kinzler, K. W.; Vogelstein, B.;     Velculescu, V. E. Brevia: High frequency of mutations of the PIK3Ca     gene in human cancers. Science 2004, 304, 554. -   85. Scheid, M. P.; Marignani, P. A.; Woodgett, J. R. Multiple     phosphoinositide 3-kinase-dependent steps in activation of protein     kinase B. Mol. Cell. Biol. 2002, 22, 6247-6260. -   86. Schultz, R. M.; Merriman, R. L.; Andis, S. L.; Bonjouklian, R.;     Grindey, G. B.; Rutherford, P. G.; Gallegos, A.; Massey, K.;     Powis, G. In vitro and in vivo antitumor activity of the     phosphatidylinositol-3-kinase inhibitor, wortmannin. Anticancer Res.     1995, 15, 1135-9. -   87. Segrelles, C.; Moral, M.; Lara, M. F.; Ruiz, S.; Santos, M.;     Leis, H.; Garcia-Escudero, R.; Martinez-Cruz, A. B.;     Martinez-Palacio, J.; Hernandez, P.; Ballestin, C.; Paramio, J. M.     Molecular determinants of Akt-induced keratinocyte transformation.     Oncogene 2006, 25, 1174-1185. -   88. Sekimoto, T.; Fukumoto, M.; Yoneda, Y. 14-3-3 suppresses the     nuclear localization of threonine 157-phosphorylated p27Kip1.     EMBO J. 2004, 23, 1934-1942. -   89. Semba, S.; Itoh, N.; Ito, M.; Youssef, E. M.; Harada, M.;     Moriya, T.; Kimura, W.; Yamakawa, M. Down-regulation of PIK3CG     catalytic subunit of phosphatidylinositol 3-OH kinase by CpG     hypermethylation in human colorectal carcinoma. Clin. Cancer Res.     2002, 8, 3824-3831. -   90. Shayesteh, L.; Lu, Y.; Kuo, W.-L.; Baldocchi, R.; Godfrey, T.;     Collins, C.; Pinkel, D.; Powell, B.; Mills, G. B.; Gray, J. W.     PIK3CA is implicated as an oncogene in ovarian cancer. Nat. Genet.     1999, 21, 99-102. -   91. Shekar, S. C.; Wu, H.; Fu, Z.; Yip, S.-C.; Nagajyothi;     Cahill, S. M.; Girvin, M. E.; Backer, J. M. Mechanism of     Constitutive Phosphoinositide 3-Kinase Activation by Oncogenic     Mutants of the p85 Regulatory Subunit. J. Biol. Chem. 2005, 280,     27850-27855. -   92. Stahl, J. M.; Cheung, M.; Sharma, A.; Trivedi, N. R.; Shanmugam,     S.; Robertson, G. P. Loss of PTEN Promotes Tumor Development in     Malignant Melanoma. Cancer Res. 2003, 63, 2881-2890. -   93. Stambolic, V.; Suzuki, A.; De La Pompa, J. L.; Brothers, G. M.;     Mirtsos, C.; Sasaki, T.; Ruland, J.; Penninger, J. M.;     Siderovski, D. P.; Mak, T. W. Negative regulation of     PKB/Akt-Dependent cell survival by the tumor suppressor PTEN. Cell     1998, 95, 29-39. -   94. Stauffer, F.; Holzer, P.; Garcia-Echeverria, C. Blocking the     PI3K/PKB pathway in tumor cells. Curr. Med. Chem. Anticancer Agents     2005, 5, 449-462. -   95. Steck, P. A.; Pershouse, M. A.; Jasser, S. A.; Yung, W. K. A.;     Lin, H.; Ligon, A.

H.; Langford, L. A.; Baumgard, M. L.; Hattier, T.; Davis, T.; Frye, C.; Hu, R.; Swedlund, B.; Teng, D. H. F.; Tavtigian, S. V. Identification of a candidate tumor suppressor gene, MMAC1, at chromosome 10q23.3 that is mutated in multiple advanced cancers. Nat. Genet. 1997, 15, 356-362.

-   96. Stein, R. C.; Waterfield, M. D. PI3-kinase inhibition: a target     for drug development? Mol. Med. Today 2000, 6, 347-358. -   97. Stephens, L.; Williams, R.; Hawkins, P. Phosphoinositide     3-kinases as drug targets in cancer. Curr. Opin. Pharmacol. 2005, 5,     357-365. -   98. Su, J. D.; Mayo, L. D.; Donner, D. B.; Durden, D. L. PTEN and     Phosphatidylinositol 3′-Kinase Inhibitors Up-Regulate p53 and Block     Tumor-induced Angiogenesis: Evidence for an Effect on the Tumor and     Endothelial Compartment. Cancer Res. 2003, 63, 3585-3592. -   99. Tanaka, M.; Grossman, H. B. In vivo gene therapy of human     bladder cancer with PTEN suppresses tumor growth, downregulates     phosphorylated Akt, and increases sensitivity to doxorubicin. Gene     Ther. 2003, 10, 1636-1642. -   100. Tang, E. D.; Nunez, G.; Barr, F. G.; Guan, K.-L. Negative     regulation of the forkhead transcription factor FKHR by Akt. J.     Biol. Chem. 1999, 274, 16741-16746. -   101. Taylor, V.; Wong, M.; Brandts, C.; Reilly, L.; Dean, N. M.;     Cowsert, L. M.; Moodie, S.; Stokoe, D. 5′ Phospholipid phosphatase     SHIP-2 causes protein kinase B inactivation and cell cycle arrest in     glioblastoma cells. Mol. Cell. Biol. 2000, 20, 6860-6871. -   102. Toker, A. Phosphoinositides and signal transduction. Cell. Mol.     Life Sci. 2002, 59, 761-779. -   103. Traer, C. J.; Foster, F. M.; Abraham, S. M.; Fry, M. J. Are     class II phosphoinositide 3-kinases potential targets for anticancer     therapies? Bull. Cancer (Paris). 2006, 93, E53-8. -   104. Vanhaesebroeck, B.; Leevers, S. J.; Ahmadi, K.; Timms, J.;     Katso, R.; Driscoll, P. C.; Woscholski, R.; Parker, P. J.;     Waterfield, M. D. Synthesis and function of 3-phosphorylated     inositol lipids. Annu. Rev. Biochem. 2001, 70, 535-602. -   105. Vanhaesebroeck, B.; Waterfield, M. D. Signaling by Distinct     Classes of Phosphoinositide 3-Kinases. Exp. Cell Res. 1999, 253,     239-254. -   106. Vivanco, I.; Sawyers, C. L. The phosphatidylinositol     3-Kinase-AKT pathway in human cancer. Nat. Rev. Cancer 2002, 2,     489-501. -   107. Wang, Y.; Helland, A.; Holm, R.; Kristensen Gunnar, B.;     Borresen-Dale, A.-L. PIK3CA mutations in advanced ovarian     carcinomas. Hum. Mutat. 2005, 25, 322. -   108. West, K. A.; Castillo, S. S.; Dennis, P. A. Activation of the     PI3K/Akt pathway and chemotherapeutic resistance. Drug Resist.     Update. 2002, 5, 234-48. -   109. Whyte, D. B.; Holbeck, S. L. Correlation of PIK3Ca mutations     with gene expression and drug sensitivity in NCI-60 cell lines.     Biochem. Biophys. Res. Commun. 2006, 340, 469-475. -   110. Wilker, E.; Lu, J.; Rho, O.; Carbajal, S.; Beltran, L.;     DiGiovanni, J. Role of PI3K/Akt signaling in insulin-like growth     factor-1 (IGF-1) skin tumor promotion. Mol. Carcinog. 2005, 44,     137-145. -   111. Workman, P. Inhibiting the phosphoinositide 3-kinase pathway     for cancer treatment. Biochem. Soc. Trans. 2004, 32, 393-396. -   112. Wu, G.; Xing, M.; Mambo, E.; Huang, X.; Liu, J.; Guo, Z.;     Chatterjee, A.; Goldenberg, D.; Gollin, S. M.; Sukumar, S.; Trink,     B.; Sidransky, D. Somatic mutation and gain of copy number of PIK3CA     in human breast cancer. Breast Cancer Res. 2005, 7, R609-R616. -   113. Wymann, M. P.; Sozzani, S.; Altruda, F.; Mantovani, A.;     Hirsch, E. Lipids on the move: phosphoinositide 3-kinases in     leukocyte function. Immunol. Today 2000, 21, 260-264. -   114. Yap, D. B.; Hsieh, J. K.; Lu, X. Mdm2 inhibits the apoptotic     function of p53 mainly by targeting it for degradation. J. Biol.     Chem. 2000, 275, 37296-302. -   115. Yuan, Z.-q.; Feldman, R. I.; Sussman, G. E.; Coppola, D.;     Nicosia, S. V.; Cheng, J. Q. AKT2 Inhibition of Cisplatin-induced     JNK/p38 and Bax Activation by Phosphorylation of ASK1: Implication     of AKT2 in Chemoresistance. J. Biol. Chem. 2003, 278, 23432-23440. -   116. Zhao, H.; Dupont, J.; Yakar, S.; Karas, M.; LeRoith, D. PTEN     inhibits cell proliferation and induces apoptosis by downregulating     cell surface IGF-IR expression in prostate cancer cells. Oncogene     2004, 23, 786-794. -   117. Zhao, J. J.; Cheng, H.; Jia, S.; Wang, L.; Gjoerup, O. V.;     Mikami, A.; Roberts, T. M. The p110α isoform of PI3K is essential     for proper growth factor signaling and oncogenic transformation.     Proc. Natl. Acad. Sci. U.S.A 2006, 103, 16296-300. -   118. Zhou, B. P.; Liao, Y.; Xia, W.; Spohn, B.; Lee, M.-H.; Hung,     M.-C. Cytoplasmic localization of p21Cip1/WAF1 by Akt-induced     phosphorylation in HER-2/neu-overexpressing cells. Nat. Cell Biol.     2001, 3, 245-252. 

The invention claimed is:
 1. A compound of formula (I):

wherein: R¹ is a hydrogen atom or a —C(═O)H group; and R^(1′) is a —(CH₂)₂OH group; or R¹ and R^(1′) are taken together with the N-atom to which they are attached to form a morpholinyl group which is substituted with 1 or 2 substituents independently selected from the group consisting of —OH and ═O, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 2. The compound according to claim 1, wherein: R¹ is a hydrogen atom; and R^(1′) is a —(CH₂)₂OH group, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 3. The compound according to claim 1, wherein: R¹ is a —C(═O)H group; and R^(1′) is a —(CH₂)₂OH group, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 4. The compound according to claim 1, wherein: R¹ and R^(1′) are taken together with the N-atom to which they are attached to form a morpholinyl group which is substituted with 1 or 2 substituents independently selected from the group consisting of —OH and ═O, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 5. The compound according to claim 1, wherein: R¹ and R^(1′) are taken together with the N-atom to which they are attached to form a morpholinyl group which is substituted with a —OH and a ═O substituent, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 6. The compound according to claim 1, wherein: R¹ and R^(1′) are taken together with the N-atom to which they are attached to form a morpholinyl group which is substituted with a —OH substituent, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 7. The compound according to claim 1, wherein: R¹ and R^(1′) are taken together with the N-atom to which they are attached to form a morpholinyl group which is substituted with a ═O substituent, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 8. The compound according to claim 1, wherein: R¹ and R^(1′) are taken together with the N-atom to which they are attached to form a morpholinyl group which is substituted with a ═O substituent, wherein said ═O group is bound to a carbon atom adjacent to said N-atom, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 9. The compound according to claim 1, wherein the compound is:

or a physiologically acceptable salt thereof.
 10. The compound according to claim 1, wherein the compound is:

or a physiologically acceptable salt thereof.
 11. The compound according to claim 1, wherein the compound is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 12. The compound according to claim 1, wherein the compound is:

or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 13. The compound according to claim 1, wherein the compound is:

or a physiologically acceptable salt thereof.
 14. A pharmaceutical composition comprising a compound of formula (I) according to claim 1, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof, and a pharmaceutically acceptable diluent or carrier.
 15. The pharmaceutical composition according to claim 14, wherein the compound of formula (I) is present in a therapeutically effective amount.
 16. The pharmaceutical composition according to claim 15, further comprising at least one additional active compound.
 17. The pharmaceutical composition of claim 16, wherein the at least one additional active compound is an anti-hyper-proliferative, anti-inflammatory, analgesic, immunoregulatory, diuretic, anti-arrhythmic, anti-hypercholesterolemic, anti-diabetic, anti-dyslipidemia, anti-diabetic or antiviral agent.
 18. The pharmaceutical composition of claim 17, wherein the at least one additional active compound is 131I-chTNT, abarelix, abiraterone, aclarubicin, ado-trastuzumab emtansine, afatinib, aflibercept, aldesleukin, alemtuzumab, Alendronic acid, alitretinoin, altretamine, amifostine, aminoglutethimide, Hexyl aminolevulinate, amrubicin, amsacrine, anastrozole, ancestim, anethole dithiolethione, angiotensin II, antithrombin III, aprepitant, arcitumomab, arglabin, arsenic trioxide, asparaginase, axitinib, azacitidine, basiliximab, belotecan, bendamustine, belinostat, bevacizumab, bexarotene, bicalutamide, bisantrene, bleomycin, bortezomib, buserelin, bosutinib, brentuximab vedotin, busulfan, cabazitaxel, cabozantinib, calcium folinate, calcium levofolinate, capecitabine, capromab, carboplatin, carfilzomib, carmofur, carmustine, catumaxomab, celecoxib, celmoleukin, ceritinib, cetuximab, chlorambucil, chlormadinone, chlormethine, cidofovir, cinacalcet, cisplatin, cladribine, clodronic acid, clofarabine, copanlisib , crisantaspase, cyclophosphamide, cyproterone, cytarabine, dacarbazine, dactinomycin, darbepoetin alfa, dabrafenib, dasatinib, daunorubicin, decitabine, degarelix, denileukin diftitox, denosumab, depreotide, deslorelin, dexrazoxane, dibrospidium chloride, dianhydrogalactitol, diclofenac, docetaxel, dolasetron, doxifluridine, doxorubicin, doxorubicin+estrone, dronabinol, eculizumab, edrecolomab, elliptinium acetate, eltrombopag, endostatin, enocitabine, enzalutamide, epirubicin, epitiostanol, epoetin alfa, epoetin beta, epoetin zeta, eptaplatin, eribulin, erlotinib, esomeprazole, estradiol, estramustine, etoposide, everolimus, exemestane, fadrozole, fentanyl, filgrastim, fluoxymesterone, floxuridine, fludarabine, fluorouracil, flutamide, folinic acid, formestane, fosaprepitant, fotemustine, fulvestrant, gadobutrol, gadoteridol, gadoteric acid meglumine, gadoversetamide, gadoxetic acid, gallium nitrate, ganirelix, gefitinib, gemcitabine, gemtuzumab, Glucarpidase, glutoxim, GM-CSF, goserelin, granisetron, granulocyte colony stimulating factor, histamine dihydrochloride, histrelin, hydroxycarbamide, I-125 seeds, lansoprazole, ibandronic acid, ibritumomab tiuxetan, ibrutinib, idarubicin, ifosfamide, imatinib, imiquimod, improsulfan, indisetron, incadronic acid, ingenol mebutate, interferon alfa, interferon beta, interferon gamma, iobitridol, iobenguane (123I), iomeprol, ipilimumab, irinotecan, Itraconazole, ixabepilone, lanreotide, lapatinib, lasocholine, lenalidomide, lenograstim, lentinan, letrozole, leuprorelin, levamisole, levonorgestrel, levothyroxine sodium, lisuride, lobaplatin, lomustine, lonidamine, masoprocol, medroxyprogesterone, megestrol, melarsoprol, melphalan, mepitiostane, mercaptopurine, mesna, methadone, methotrexate, methoxsalen, methylaminolevulinate, methylprednisolone, methyltestosterone, metirosine, mifamurtide, miltefosine, miriplatin, mitobronitol, mitoguazone, mitolactol, mitomycin, mitotane, mitoxantrone, mogamulizumab, molgramostim, mopidamol, morphine hydrochloride, morphine sulfate, nabilone, nabiximols, nafarelin, naloxone+pentazocine, naltrexone, nartograstim, nedaplatin, nelarabine, neridronic acid, nivolumabpentetreotide, nilotinib, nilutamide, nimorazole, nimotuzumab, nimustine, nitracrine, nivolumab, obinutuzumab, octreotide, ofatumumab, omacetaxine mepesuccinate, omeprazole, ondansetron, oprelvekin, orgotein, orilotimod, oxaliplatin, oxycodone, oxymetholone, ozogamicine, p53 gene therapy, paclitaxel, palifermin, palladium-103 seed, palonosetron, pamidronic acid, panitumumab, pantoprazole, pazopanib, pegaspargase, PEG-epoetin beta (methoxy PEG-epoetin beta), pembrolizumab, pegfilgrastim, peginterferon alfa-2b, pemetrexed, pentazocine, pentostatin, peplomycin, Perflubutane, perfosfamide, Pertuzumab, picibanil, pilocarpine, pirarubicin, pixantrone, plerixafor, plicamycin, poliglusam, polyestradiol phosphate, polyvinylpyrrolidone+sodium hyaluronate, polysaccharide-K, pomalidomide, ponatinib, porfimer sodium, pralatrexate, prednimustine, prednisone, procarbazine, procodazole, propranolol, quinagolide, rabeprazole, racotumomab, radium-223 chloride, radotinib, raloxifene, raltitrexed, ramosetron, ramucirumab, ranimustine, rasburicase, razoxane, refametinib , regorafenib, risedronic acid, rhenium-186 etidronate, rituximab, romidepsin, romiplostim, romurtide, roniciclib , samarium (153Sm) lexidronam, sargramostim, satumomab, secretin, sipuleucel-T, sizofiran, sobuzoxane, sodium glycididazole, sorafenib, stanozolol, streptozocin, sunitinib, talaporfin, tamibarotene, tamoxifen, tapentadol, tasonermin, teceleukin, technetium (99mTc) nofetumomab merpentan, 99mTc-HYNIC-[Tyr3]-octreotide, tegafur, tegafur+gimeracil+oteracil, temoporfin, temozolomide, temsirolimus, teniposide, testosterone, tetrofosmin, thalidomide, thiotepa, thymalfasin, thyrotropin alfa, tioguanine, tocilizumab, topotecan, toremifene, tositumomab, trabectedin, tramadol, trastuzumab, trastuzumab emtansine, treosulfan, tretinoin, trifluridine+tipiracil, trilostane, triptorelin, trametinib, trofosfamide, thrombopoietin, tryptophan, ubenimex, valatinib , valrubicin, vandetanib, vapreotide, vemurafenib, vinblastine, vincristine, vindesine, vinflunine, vinorelbine, vismodegib, vorinostat, vorozole, yttrium-90 glass microspheres, zinostatin, zinostatin stimalamer, zoledronic acid, zorubicin, or combinations thereof.
 19. A packaged pharmaceutical composition comprising a container, the pharmaceutical composition of claim 14, and instructions for using the pharmaceutical composition to treat a disease or condition in a mammal.
 20. A method of inhibiting phosphotidylinositol-3-kinase in a cell comprising contacting the cell with one or more compounds according to claim 1, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 21. A method of treating a disorder mediated by phosphotidylinositol-3-kinase in a mammal in need thereof, comprising administering to the mammal a therapeutically effective amount of one or more compounds according to claim 1, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof.
 22. The method of claim 21, wherein said disorder mediated by phosphotidylinosito-3-kinase is an angiogenic disorder, an inflammatory disorder, an autoimmune disorder, a cardiovascular disorder, a neurodegenerative disorder, a metabolic disorder, a nociceptive disorder, an ophthalmic disorder, a pulmonary disorder, or a renal disorder.
 23. The method of claim 22, wherein the cardiovascular disorder is thrombosis, pulmonary hypertension, cardiac hypertophy, atherosclerosis or heart failure.
 24. The method of claim 22, wherein the inflammatory disorder is COPD.
 25. The method of claim 22, wherein the angiogenic disorder is diabetic retinopathy, ischemic retinal-vein occlusion, retinopathy of prematurity, macular degeneration, neovascular glaucoma, psoriasis, retrolental fibroplasias, angiofibroma, inflammation, rheumatoid arthritis, restenosis, in-stent restenosis, or vascular graft restenosis.
 26. A method of treating a hyperproliferative disorder in a mammal in need thereof, comprising administering to the mammal a therapeutically effective amount of one or more compounds according to claim 1, or a physiologically acceptable salt, solvate, hydrate or stereoisomer thereof, wherein the hyperproliferative disorder is selected from the group consisting of leukemia, lymphoma, non-small cell lung carcinoma, breast cancer, and colorectal cancer.
 27. The method of claim 26, wherein the hyperproliferative disorder is colorectal cancer.
 28. The method of claim 26, wherein the hyperproliferative disorder is non-small cell lung carcinoma.
 29. The method of claim 26, wherein the hyperproliferative disorder is non-Hodgkin's lymphoma.
 30. The compound of claim 1 or a physiologically acceptable salt thereof.
 31. The pharmaceutical composition of claim 14, comprising the compound of formula (I) or a physiologically acceptable salt thereof.
 32. The method of claim 20, comprising contacting the cell with one or more compounds of formula (I) or a physiologically acceptable salt thereof.
 33. The method of claim 21, comprising administering one or more compounds of formula (I) or a physiologically acceptable salt thereof. 